%xmlchars; ]> mc00211 Guide to the Robert F. Davis Papers, 1932 - 1992 Processed by: Meredith R. Evans; machine-readable finding aid created by: Meredith R. Evans; Katherine M. Wisser North Carolina State University Libraries' Special Collections Research Center
Campus Box 7111 Raleigh, NC 27695-7111
2002

NCSU people

NCSU

Engineering

 Machine-readable finding aid derived from xml authoring program. Date of source: April 30, 2002 Finding aid written in English 2005Converted to EAD 2002 Guide to the Robert F. Davis Papers, 1932 - 1992 MC 211 North Carolina State University Libraries' Special Collections Research Center Meredith R. Evans May 8, 2002 Meredith R. Evans; Katherine M. Wisser Descriptive Summary North Carolina State University. Libraries. Special Collections Dept. Davis, Robert F. (Robert Foster), 1942- The Robert F. Davis Papers, 1932 - 1992 MC 211 18 7.25 The Robert F. Davis Papers includes correspondence, high school summer workshop and North Carolina State University course materials, and a large series of article reprints that relate to the processing of glass and ceramics. The material dates from 1932 to 1992, and bulks in the two decades of his career as educator and researcher. Topics include his academic life and materials science engineering research and education. on-site For current information on the location of these materials, please consult the Special Collections Research Center Reference Staff. Information for Users Restrictions to Access

This collection is open for research; access requires at least 24 hours advance notice.

Acquisitions not known, but the assumption is that Davis himself gave the collection. Accessions record shows that it was a gift and was received from Davis. Sheet is dated 4-6-93. Inventory worksheet notes "Donor: not known - self probably"

 Acquisitions Information

Gift of Robert F. Davis, 1993.

 Preferred Citation

[Identification of Item], Robert F. Davis Papers, Special Collections Research Center, North Carolina State University Libraries, Raleigh, North Carolina.

 Copyright Notice

North Carolina State University does not own copyright to this collection. Individuals obtaining materials from the NCSU Libraries' Special Collections Research Center are responsible for using the works in conformance with United States copyright law as well as any donor restrictions accompanying the materials.

 Biographical Note

Robert F. Davis is a native of Liberty, North Carolina. He received his Bachelor of Science in Ceramic Engineering (1964) from North Carolina State University, Masters of Science in Ceramic Engineering (1966) from Pennsylvania State University and his Doctorate in Ceramic Engineering (1970) from University of California - Berkeley. After graduating, Davis worked as a research scientist at Corning Glass Works in Corning, New York and in 1972 joined the faculty of North Carolina State University.

Davis' honors and awards for teaching include: the Alumni Distinguished Graduate Professor, (1995) and the Distinguished Lecturer of the Troisieme Cycle de la Physique en Suisse Romande (1995). His honors and awards for research include: the ALCOA Award for Research Performance in a Given Year (1983), American Ceramic Society Fellow (1984), ALCOA Distinguished Research Award (1987), NCSU Alumni sponsored Outstanding Research Award (1990), Kobe Steel Ltd. Distinguished University Professor (1993), ORNL Excellence in Publications Award (1993), Richard M. Fulrath Memorial Award - American Ceramic Society (1997), Collegiate Inventor of the Year (1999), R.J. Reynolds Award for Excellence in Teaching, Research and Outreach (1999) and Davis was a fellow of the North Carolina Japan Center. One of Davis' most recognized achievements was being elected to the National Academy of Engineering (NAE) in the 2000-01 year for contributions in the development of silicon carbide and group III-nitrides as practical electronic materials for devices. An election to the academy remains one of the highest professional honors bestowed in the engineering disciplines. He was among 74 engineers and 8 foreign associates awarded NAE memberships that year. The award recognizes significant contributions to engineering theory and practice, and for pioneering advances in new and developing technologies.

Davis is internationally known with over 200 national and international publications ranging from articles to edited books. He has written in publications in Brazil, Canada, England, France, Germany, Greece, Hong Kong, Italy, Japan, People's Republic of China, Portugal, Scotland, South Africa, Spain, Sweden, Switzerland and Yugoslavia/Slovenia. He also has over (50) fifty patents, patent applications and invention disclosures related to his field of Ceramic Engineering. His extensive research has led to collaborative efforts with a variety of departments, corporations and government agencies.

His research interests include the growth and characterization of semiconductors, ceramic thin films and ceramic coatings (for severe environments), kinetics and mechanisms of creep in ceramic materials, growth of unique pseudomorphic films, atomic layer epitaxy, metal-ceramic interface chemistry and adhesion science of metal, metal and ceramics and the mechanisms of plastic deformation in high technology ceramic materials. Davis' research teams have worked on projects that focus device-related research, the actual fabrication, characterization and control of working electronic, optoelectronic and electrical equipment and research involving coatings for employment as storage capacitors for next generation electrical vehicles, thermal and erosion barriers on selected components of turbine engines and for containing radioactive wastes.

Scope and Content Note

The Robert F. Davis Papers was initially in binders with labeled dividers. This collection is arranged according to subject and/or type of document. This collection is divided into four series, mostly arranged according to subject. Included in the collection are professional correspondence (approx. 1973-1992) relating to Davis' responsibilities as professor and researcher, research notes and course materials for high school summer workshops and materials engineering classes taught by Davis (approx. 1971-1984) and numerous related articles (approx. 1932-1980). The Correspondence and High School Summer Workshop are arranged chronologically. The Course Material is arranged according to subject and the Articles are in original order according to subject.

The Correspondence series is a significant amount of letters that contains personal and professional correspondence. The second series, High School Summer Workshop includes paperwork, slides and photographs relating to this annual event. The third series, Course Materials encompasses educational lectures, research notes, exams and articles. The final series, Articles is the largest part of the collection that includes scientific articles and reports related to a variety of courses, some which are unidentified. The collection is divided among several topics pertaining to Material Engineering, specifically the technology concerning glass and ceramic processing, metal and alloys.

 Organization Note

This collection is organized into four series: Correspondence, High School Summer Workshop, Course Materials, and Articles.

 Online Catalog Headings Ceramic engineering -- Research Ceramic engineering -- Study and teaching Ceramic materials -- Research Davis, Robert F. (Robert Foster), 1942- Glass-ceramics -- Research Materials science -- Research Materials science -- Study and teaching North Carolina State University. Dept. of Materials Science and Engineering Related Material College of Engineering, Department of Materials Science and Engineering, UA 105.014 Detailed Description of the Collection Correspondence, 1973 - 1992 6 archival Boxes3 linear feet

The Correspondence series (1973-1992) includes several letters to other students, academicians, researchers, corporations and agencies. The correspondence is global. The content of the correspondence refers to reimbursements, conference information, courses, faculty input, potential faculty, visiting scholars, resumes, recommendations, referrals, grant and award information, potential research collaboration, relationships with corporations and government agencies, abstracts, journal and proposal submissions and questionnaires.

 11 January - December, 1973 The following two publications included with undated correspondence. 12 Glass Containers , Glass Container Manufacturers Institute 13 The Genesis of a Jar, Glass Container Manufacturers Institute 14 January - December, 1974 15 January - December, 1975 16 May, 1975 The following six publications included with May, 1975 correspondence. 17 D.E. Polk and G.A. Pampillo, Comprehensive Plastic Deformation of a Bulk Metallic Glass, Materials Science and Engineering, 1974 18 D.E. Polk, and H.S. Chen, Formation and Thermal Properties of Glassy Ni-Fe Based Alloys, Journal of Non-Crystalline Solids, 1974 19 D.E. Polk, and H.S.Chen, Mechanical Properties of Ni-Fe Based Alloy Glasses, Journal of Non-Crystalline Solids, 1974 110 D.E. Polk, and G.A. Pampillo,The Strength and Fracture Characteristics of Fe, Ni-Fe and Ni-Base Glasses at Various Temperatures, ACTA Metallurgica, Vol. 22, 1974 111 L.A. Davis, Plastic Instability in a Metallic Glass, 1975 112 L.A. Davis and S. Kavesh, Deformation and Fracture of an Amphorous Metallic Alloy at High Pressure, Journal of Materials Science, 1975 113 January - December, 1976 114 June, 1978 The following eleven publications included with June, 1978 correspondence. 115 Facts about Lead Glazes for Art Potters and Hobbyists, Lead Industries Association, Inc., 1972 116 ILZRO Manual: Ceramics 1, Lead Glazes for Dinnerware, International Lead Zinc Research Organization, Inc., and Lead Industries Association Inc., 1974 117 R. Lehman, H. Smyth and M. McLaren, Lead Release from Glazes and Glasses in Contact with Acid Solutions, ILZRO Project No. LC-196: Mechanisms of Lead Release from Simple Glasses, Progress Report No. 7, July 1 - December 31, 1975 118 R. Lehman, D. Kramer, M. McLaren and H. Smyth, ILZRO Research Grant LC-196: Mechanisms of Lead Release from Simple Glasses, Progress Report No. 9, January 1 - December 31, 1976 119 D. Kramer, M. McLaren and H. Smyth, ILZRO Research Grant LC-196: Mechanisms of Lead Release from Simple Glasses, Progress Report No. 10, January 1 - April 30, 1977 120 D. Kramer, A. Trestman, M. McLaren and H. Smyth, ILZRO No. LC-196: Mechanisms of Lead Release from Simple Glasses, Progress Report No. 11, May 1 - December 31, 1977 121 C. Sikorski and H. Smyth, ILZRO Research Grant CC-11: Cadium Release from Glasses and Glazes, Progress Report No. 1, January 1 - June 30, 1976 122 C. Sikorski and H. Smyth, ILZRO Research Grant CC-11: Cadium Release from Glasses and Glazes, Progress Report No. 2, June 30 - December 31, 1976 123 C. Sikorski, H. Smyth and D. Wishnick, ILZRO Research Grant CC-11: Cadium Release from Glasses and Glazes, Progress Report No. 3, January 1 - April 30, 1977 124 C. Sikorski , H. Smyth, D. Wishnick and M. McLaren, ILZRO Research Grant CC-11: Cadium Release from Glasses and Glazes, Progress Report No. 4, May 1 - December 31, 1977 125 S. Yoon, G. Krefft and M. McLaren, Lead Release from Glazes and Glasses in Contact with Acid Solutions, The American Ceramic Society Bulletin, Vol. 55, No. 5, May, 1976 126 March, 1980 21 January, 1983 - December, 1984 22 January, 1985 23 February, 1985 24 March, 1985 25 April, 1985 26 May, 1985 27 June, 1985 28 July, 1985 29 August, 1985 210 September, 1985 211 October, 1985 212 November, 1985 213 December, 1985 214 January, 1986 215 February, 1986 216 March, 1986 217 April, 1986 218 May, 1986 219 June, 1986 220 July, 1986 221 August, 1986 222 September, 1986 223 October, 1986 224 November, 1986 225 December, 1986 31 January, 1987 32 January, 1987 33 February, 1987 34 March, 1987 35 April, 1987 36 May, 1987 37 June, 1987 The following four publications are included with June, 1987 correspondence. 38 S. Motojima and T. Higashi, Desposition and Hollow Crystal Growth of CrP and Cr<emph render="doublequote">3</emph>P by CVD Process, Journal of Crystal Growth, March, 1985 39 S. Motojima and H. Yagi and N. Iwamori, Chemical Vapour Desposition of SiC and Some of its Properties, Journal of Materials Science Letters 5, 1986 310 S. Motojima and N. Iwamori, Chemical Vapour Desposition of Si<emph render="doublequote">3</emph>N<emph render="doublequote">4</emph> from a Gas Mixture of Si<emph render="doublequote">2</emph>Cl<emph render="doublequote">6</emph>, NH<emph render="doublequote">3</emph> and H<emph render="doublequote">2</emph>, Journal of Materials Science, 1986 311 S. Motojima and M. Kohno, Preparation and Properties of Nickel Silicide Layers by the Diffusion and CVD Processes Using Si<emph render="doublequote">2</emph>Cl<emph render="doublequote">6</emph> as a Source of Silicon, Journal of Materials Science, 1987 312 June, 1987 313 June, 1987 314 July, 1987 315 August, 1987 316 September, 1987 317 September, 1987 318 October, 1987 319 November, 1987 320 December, 1987 41 January 1988

Includes related correspondence from November 1987.

 42 February, 1988 43 March, 1988 44 April, 1988 45 May, 1988 46 June, 1988 47 July, 1988 48 August, 1988 49 September, 1988 410 October, 1988 411 November, 1988 412 December, 1988 51 January, 1989 52 January, 1989 53 February, 1989 54 March, 1989 55 April, 1989 56 May, 1989 57 June, 1989 58 July, 1989 59 August, 1989 510 September, 1989 511 October, 1989 512 November, 1989 513 December, 1989 61 January, 1990

Includes related correspondence from December 1989.

 62 January, 1990 63 February, 1990 64 March, 1990 65 April, 1990 66 May, 1990 67 June, 1990 68 July, 1990 69 August, 1990 610 September, 1990 611 October, 1990 612 November, 1990 613 December, 1990 614 January, 1991 615 February, 1991 616 March, 1991 617 April, 1991 618 May, 1991

Graduate address included in May, 1991 correspondence.

 619 June, 1991 620 July, 1991 621 August, 1991 622 September, 1991 623 October, 1991 624 November, 1991 625 December, 1991 - January, 1992 High School Summer Workshop, 1971 - 1976 1 archival Box.25 linear feet

The High School Summer Workshop series (1971-1976) includes curriculum information, brochures, forty-seven (47) slides and ten (10) photographs.

71 Student materials, 1973 - 1976 72 Faculty workshop assessment, 1973 - 1974 73 Notes, 1974 -1976 74 Brochures, 1974 - 1976 Careers in Ceramic Engineering What About Engineering Materials Engineering: Issues and Answers Ceramic Bulletin Workshop on Physics and Chemistry in Action 75 Presentation and demonstrations, June, 1975, slides 76 Students in class, 1975 - 1976, photographic prints Course Materials, 1973 - 1984 5 archival Boxes 2 linear feet

The Course Materials series (1971-1984) includes materials from six courses, primarily from 1971-1973 and 1978-1984. Most of the collection contains exams, assignments, course notes and related articles. The bulk is from MAT 540. The following course descriptions are from the 1972-73 North Carolina State University catalog. The descriptions appear to be the same past the date of the material in this collection.

MAT 201 Structure and Properties of Engineering Materials I An introduction to the fundamental physical principles governing the structure and constitution of metallic and nonmetallic materials of construction, and the relation of these principles to the control of properties. MAT 310 Physical Examination of Materials (prerequisite 201) Experiments designed to demonstrate basic techniques in crystallography, X-ray diffraction, optical and electron microscopy (and thermal analysis - added in 1980). MAT 311 Ceramic Processing I (prerequisite 201) A detailed study covering the basic chemical and physical laws underlying the processes and behavior of diverse ceramic composition in the sequential manufacturing operations required to produce ceramic materials with controlled properties. Included are such topics as size reduction, separation and analysis; particle packing, mixing, agglomeration, surface chemistry, rheology of liquid-solid and solid-polymer systems; and behavior of ceramics in a wide variety of forming processes. MAT 435, 436 Physical Ceramics I, IIA project oriented course in which starting materials of various types of ceramic products are characterized including analysis of reactions, selection of processing parameters, processing measurement and properties appropriate to the ceramic analysis; and correlation of all materials and processing parameters with properties and microstructures. Projects are selected to exemplify characteristic types of ceramics. In 1980, the description is as follows: 435 - The physiochemical nature of classical and newly discovered ceramic materials. Emphasis on thermodynamics, crystal structure, structural imperfections and non-stoichiometry of ceramic compounds coupled with binary and multiple phase equilibria. Effects of these parameters on properties. 436 -Emphasis on thermal, mechanical, electrical and electronic properties of ceramic materials. MAT 540 Glass Technology (Prerequisite 437) For graduates and advanced undergraduates.Fundamentals of glass manufacture including compositions, properties and application of the principal types of commercial glasses.

 8 Unspecified courses 81 Lab notes Notes 82 Ionic crystals 83 Processing 84 Forming 5 Ceramic processing 86 Hot pressing MAT 201 Notes 91 Introduction 92 Chemical bonding 93 Atomic order 94 Atomic disorder 95 Electron transport 96 Magnetic properties 97 Single phase alloys 98 Polymers 99 Ceramic materials 910 Corrosion 911 Thermal processing 912 Phase equilibria 913 Lab related 914 Exam Review 915 Exams MAT 310 916 Exams MAT 311 917 Notes 918 Exams MAT 401 919 Notes and exams 10 MAT 435 101 General Notes (1 of 2) 102 General Notes (2 of 2) 103 Self-paced evaluation (1 of 2) 104 Self-paced evaluation (2 of 2) Notes 105 Unit I, Geometrical Arrangement of Atoms in Perfect Elemental Crystals 106 Unit II, Voids in Closest-Packed and Other Atomic Structure 107 Unit III, Pauling's Rules for Ionic Crystals 108 Unit IV, Ceramic Crystal Structures I 109 Unit V, Ceramic Crystal Structures II 1010 Unit VI, Polymorphism 1011 Unit VII, Point (Atomic) Defects in Stoichiometric Ceramic Materials 1012 Unit VIII, Nonstoichiometry in Ceramic Compounds 1013 Unit IX, Phase Equilibria I, Gibbs Phase Rule, the Clausius, Clapeyron Equation and Unary and Binary Phase Diagrams 1014 Unit X, Three Component Systems I and Simple Ternary Systems 1015 Unit XI, Three Component Systems II, (1) Ternary Diagram with Congruently Melting Binary Compound and (2) Ternary Diagram with Peritectic 1016 Unit XII, Three Component Systems III, Ternary Diagram with Both Binary Incongruent Melting Compound and Ternary Peritectic 1017 Unit XIII, Three Component Systems IV, Real Systems 1018 Unit XIV, Ionic Diffusion in Ceramic Materials 1019 Problems with answers 11 MAT 436 111 Educational Modules for Materials Science and Engineering, Robert F. Davis 112 Problem set 113 Course outline Notes 114 Unit I 115 Unit III 116 General Notes (1 of 2) 117 General Notes (2 of 2) 118 Notes and exams (1 of 2) 119 Notes and exams (2 of 2) 1110 Student panelists 12 MAT 540 121 Outline and list of references Notes 122 Unit 1, Theory of Glass Formation 123 Unit 2, Nature of the Vitreous State 124 Unit 3, Viscosity 125 Unit 4, Density 126 Unit 5, Glass Batching 127 Unit 6, Glazes, Enamels, Theory of Bonding

Unit 7, Manufacture of Glass and Glass Articles (missing)

 128 Unit 8, Glass Ceramics 129 Unit 9, Mechanic Strength 1210 Unit 10, Electrical Conduct 1211 Unit 11, Current and Future Uses of Glasses 1212 Exams with answers 1213 Exams 1214 Exams with answers 1215 Final Exam 1216 Assignment questions with answers Notes 1217 Unit VIII, Glass ceramics 1218 General 1219 Unit IX, Mechanical Strength of Glass 1220 Unit X, Current and Future Uses of Glass 1221 References Notes 1222 Unit 1, Theories of Glass Formation 1223 Unit 1 1224 Unit XIV, Oxide Glasses: Their Formation and Structure Utilization of Theories of Silicate Glass Formation 1225 Assignments Notes 1226 Unit II, Theories of Glass Formation and Nature of Glass Transformation 1227 Exams Notes 1228 Unit III, Viscosity 1229 Unit IV, Density 1230 Unit V, Glass Batching 1231 Unit VI 1232 Unit VII Articles, 1932 - 1984 6 archival boxes 3 linear feet

The Articles series (1932-1980) includes several articles, reports, speeches, research material, and agendas relating to science, technology and education in the United States. Some of them contain multiple languages, with English translation. They consist primarily of articles used in the development and teaching of his Glass Technology (MAT 540) Course. These articles were initially stored in binders and have been maintained in original order.

 13 MAT 540 131 W.H. Zachariasen, The Atomic Arrangement in Glass, Vol. 54, October, 1932 132 H. Rawson, The Relationship Between Liquidus Temperature Bond Strength and Glass Formation, Glass and Ceramic, Research Laboratory 133 B.E. Warren, X-Ray Diffraction of Vitreous Silica, Eastman Laboratory of Physics Massachusetts Institute of Technology, July 21, 1933 134 R.L. Mozzi and B.E. Warren, The Structure of Vitreous Silica, Journal of Applied Cryst. Vol. 2, 1969 135 Kuan-Han Sun, Fundamental Condition of Glass Formation, Journal of the American Ceramic Society, 1947 136 Robert F. Davis and J.A. Pask, Diffusion and Reaction Studies in the System Al<emph render="doublequote">2</emph>O<emph render="doublequote">3</emph>-SiO<emph render="doublequote">2</emph>, Journal of the American Ceramic Society, Vol. 55., No. 10, October 10, 1972 137 P.J. Bray and J.G. O'Keefe, Nuclear Magnetic Resonance Investigations of the Structure of Alkali Borate Glasses, Physics and Chemistry of Glasses, 1963 138 E. Stern, The Analysis of Materials by X-Ray Absorption, April, 1976 139 E. Rowe and J. Weaver, The Uses of Synchrotron Radiation Unit IV, Density 1310 M.L. Huggins and J.M Stevels, Comparison of Two Equations for Calculation of Densities of Glasses from Their Compositions , Journal of the American Ceramic Society, Vol.37, No. 10 Unit VI, Enamels 1311 M.P. Borom and J.A. Pask, Role of Adherence Oxides in the Development of Chemical Boding at Glass-Metal Interfaces, Journal of the American Ceramic Society, Vol. 49, No. 1, January 21, 1966 1312 J.J. Hammel, Experimental Evidence for Spinodal Decomposition in Glasses of the Na<emph render="doublequote">2</emph>O SiO<emph render="doublequote">2</emph> System, 7th International Congress on Glass, June 26 - July 3, 1965 1313 G.F. Neilson, Nucleation Phenomena in Glass - Ceramic Materials, April 30, 1970 1314 R.D. Maurer, Light Scattering by Glasses, The Journal of Chemical Physics, December, 1956 1315 R.D. Maurer, Crystal Nucleation in a Glass Containing Titania, Journal of Applied Physics, June, 1962 1316 M. Goldstein, Theory of Scattering for Diffusion-Controlled Phase Separations, Journal of Applied Physics, July, 1963 1317 M. Goldstein, Light Scattering and Spinodal Decomposition in Glasses, Journal of the American Ceramic Society, March, 1965 1318 J.J. Hammel and S. Ohlberg, Light Scattering from Diffusion-Controlled Phase Separations in Glass, Journal of Applied Physics, April, 1965 1319 P.E. Doherty, D.W. Lee and R.S. Davis, Direct Observation of the Crystallization of LiO-Al<emph render="doublequote">2</emph>O<emph render="doublequote">3</emph>-SiO<emph render="doublequote">2</emph>, Journal of American Ceramic Society, 1967 1320 S. Ohlberg and J.J. Hammel, Formation and Structure of Phase Separated Soda-Lime-Silica Glass, Presented at the 7th International Congress, June 26 - July 3, 1965 1321 R. Roy, Metastable Liquid Immiscibilty and Subsolidus Nucleation, Journal of American Ceramic Society, December, 1960 1322 J. MacDowell, Nucleation in Glasses Industrial and Engineering Chemistry, March, 1966 1323 R.J. Charles, Metastable Liquid Immiscibility in Alkali Metal Oxide-Silica Systems, Journal of American Ceramic Society, February, 1966 1324 S.D. Stookey, Catalyzed Crystallization of Glass in Theory and Practice, 1959 1325 S.D. Stookey and R.D. Maurer, Catalyzed Crystallization of Glass - Theory and Practice 1326 T.H. Elmer, M.E. Nordberg, G.B. Carrier, and E.J. Korda, Phase Separation in Brososilicate Glasses as Seen by Electron Microscopy and Scanning Electron Microscopy, Journal of American Ceramic Society, April, 1970 1327 J.F. MacDowell and G.H. Beall, Immiscibility and Crystallization in Al<emph render="doublequote">2</emph>O<emph render="doublequote">3</emph>-SiO<emph render="doublequote">2</emph> Glasses, Journal of American Ceramic Society, January, 1969 1328 W.B. Hillig, A Theoretical and Experimental Investigation of Nucleation Leading to Unifrom Crystallization of Glass 1329 W. Haller, Rearrangement Kinetics of the Liquid-Liquid Immiscible Micropheases in Alkali Borosilicate Melts, Journal of Chemical Physics, Vol. 42, No. 2, January, 1965 1330 W. Haller and P.B. Macedo, The Origin of Phase Connectivity in Microheterogeneous Glasses, Physics and Chemistry of Glasses, Vol. 9, No. 5, October, 1968 1331 J.W. Cahn, Spinodal Decomposition, The 1967 Institute of Metals Lecture, Transactions of the Metallurgical Society of AIME, Vol. 242, February, 1968 1332 J.W. Cahn, The Metastable Liquidus and Its Effect on the Crystallization of Glass, Journal of American Ceramic Society, Vol. 52, No. 3, March, 1969 1333 G.F. Neilsen, Spinodal Decomposition in Soda-Silica Glass, Physics and Chemistry of Glasses, Vol. 10, No. 2, April, 1969 1334 R.D. Maurer, Crystal Nucleation in a Glass Containing Titania, Journal of Applied Physics, Vol. 33, No. 6, June, 1962 Unit IX, Mechanical Preparation of Glass 1335 G.H. Beall and D.A. Duke, Transparent Glass-Ceramics, Journal of Materials Science, December, 1968 1336 W.B. Hillig, Sources of Weakness and the Ultimate Strength of Brittle Amorphous Solids 1337 F.M. Ernberger, Detection of Strength-impairing Surface Flaws in Glass, Glass Research Center, Pittsburgh Plate Glass Co., March 18, 1960 1338 F.M. Ernberger, A Study of the Origin and Frequency of Occurence of Griffith Microcracks on Glass Surfaces, Advances in Glass Technology, Vol. 1, 1962 1339 R.J. Charles, Static Fatigue of Glass I, Journal of Applied Physics, Vol. 29, No. 11, November, 1958 1340 R.J. Charles, Static Fatigue of Glass II , Journal of Applied Physics, Vol. 29, No. 11, November, 1958 1341 R.J. Charles, Dynamic Fatigue of Glass I, Journal of Applied Physics, Vol. 29, No. 12December, 1958 1342 S.M. Wiederhorn and L.H Bolz, Stress Corrosion and Static Fatigue of Glass I, Journal of the American Ceramic Society, Vol. 53, No. 10, October, 1970 1343 R.J. Charles, The Kinetics of Glass Failure by Stress Corrosion, 1962 1344 R.J. Charles and W.B. Hillig, Surfaces, Stress-Dependent Surface Reactions, and Strength, High Strength Materials, 1965 1345 S.M. Wiederhorn, Influence of Water Vapor on Crack Propagation in Soda-Lime Glass, Journal of the American Ceramic Society, Vol. 50, No. 8, August, 1967 1346 S.M. Wiederhorn, Fracture Surface Energy of Glass, Journal of the American Ceramic Society, Vol. 52, No. 2, February, 1969 1347 S.M. Wiederhorn and P.R. Townsend, Crack Healing in Glass, Journal of the American Ceramic Society, Vol. 53, No. 9, September, 1970 1348 M.E. Nordberg, E.M. Mochel, H.M. Garfinkel and J.S. Olcott, Strengthening by Ion Exchange, Journal of the American Ceramic Society, Vol. 47, No. 5, May, 1964 Unit X, Current and Future Uses of Glass 1349 A.D. Pearson, W.R. Northover, J.F. Dewald and W.F. Peck Jr., Chemical, Physical and, Electrical Properties of Some Unusual Inorganic Glasses, Advances in Technology, Vol. 1, 1962 1350 A.D. Pearson and C.E. Miller, Filamentary Conduction in Semiconducting Glass Diodes, Applied Physics Letters, Vol. 14, No. 9, May, 1969 1351 M.H. Cohen, Review of the Theory of Amorphous Semiconductors 1352 B.G. Bagley and H.E. Bair, Thermally Induced Transformations in Glassy Chalcogenides, Journal of Non-Crystalline Solids, 1970 1353 A.D. Pearson, Memory and Switching in Semiconducting Glasses: A Review, Journal of Non-Crystalline Solids, 1970 1354 H. Fritzsche, Optical and Electrical Energy Gaps in Amorphous Semiconductors, Journal of Non-Crystalline Solids, 1971 1355 Booklet on ceramic glaze, Ultrox...Zirconium Opacifiers: For All Ceramic Glazes, Metal and Thermit Corp., 1957 1356 Technical data sheets, Ultrox Zirconium Silicate Opacifiers: Properties Processing Techniques and Formulations, Metal and Thermit Corp., 1972 141 W.R. Cannon, S.C. Danforth, J.H. Flint, J.S. Haggerty and R.A. Marra, Synthesis of Ceramic Powders From Laser-heated Gas Phase Reactants, SPIE Laser Applications in Materials Processing, Vol. 198, 1979 142 III. Pauling's Rules and Basic Silicate Structures ; VI. The Clays and Mica 143 R.W. Rice, 15. Machining of Ceramics, Ceramics for High-Performance Applications, Proceedings of the Second Army Materials Technology Conference, November 13-16, 1973 144 W.E. Hauth, Crystal Chemistry in Ceramics, The American Ceramic Society Bulletin, June, 1951 145 K.S. Mazdiyasini, C.T. Lynch and J.J. Krochmal, Method for Making High Purity Fine Particle Oxides, United States Patent Office, January, 1967 146 How to Record and Compare Sieve AnalysesShort form catalog, Particle Technology Products, Micrometrics Instrument Corporation 147 A.G. Pincus, A Critical Compilation of Ceramic Forming Methods - I. General Introduction, Ceramic Bulletin, Vol. 43, No. 11, 1964 148 A.W. Allen, A Critical Compilation of Ceramic Forming Methods - II. Cold Forming Processes, Ceramic Bulletin, Vol. 43, No. 11, 1964 149 R.M. Fulrath, A Critical Compilation of Ceramic Forming Methods - III. Hot Forming Processes, Ceramic Bulletin, Vol. 43, No. 11, 1964 1410 R.W. Ford, Drying, Institute of Ceramics Textbook Series 1411 D. Lynn Johnson, Fundamentals of the Sintering Ceramics 1412 S. Strijbos, P.A. Vermeer and A. Broese van Groenou, Recent Progress in Understanding Die Compaction Powders 1413 A.R. Hingorany, F.V. Lenel and G.S. Ansell,Ch. 21 - The Role of Plastic Flow by Dislocation Motion in the Sintering of Calcium Fluoride 1414 D.L. Johnson, Ch.18 - Powder Compact Studies of Inititial Sinetring 1415 T.M. Hare and H. Palmour, III, 24: Effect of Process Optimization Properties of Alumina Sintered Under Rate Control, 1978 1416 W.J. Huppmann and H. Riegger, Liquid Phase Sinistering the Model System W-Ni, The International Journal of Powder Metallurgy and Powder Technology, Vol. 13, No. 4, 1977 1417 G.J. Oudemans, Continuous Hot Pressing , Philips Technical Review, Vol. 29, No. 2, 1968 1418 W.J. Huppmann and G. Petzow, The Role of Grain and Phase Boundaries in Liquid Phase Sintering, 1978 1419 W.J. Huppmann, H. Riegger, G. PetzowS. Pejovnik and D. Kolar, Models for the Liquid Phase Sintering of Metallic and Ceramic Systems, Science of Ceramics, Vol. 9, 1977 1420 R.W. Thompson, Mechanics of Powder Pressing: I, Model for Powder Densification, Ceramic Bulletin, Vol. 60, No. 2, 1981 1421 M.F. Yan, R.M. Cannon and H.K. Bowen, Grain Boundary Migration in Ceramics, Ceramic Processing Research Laboratory, 1977 Kermos Kit 1422 Optical Properties of Glass 1423 The Glassy State 1424 C. P. Sandbank, Fiber Optic Communications: A Survey, Electrical Communication, Vol. 50, No. 1, 1975 1425 R.M.J. Cotterill, Glassy Metals, American Scientist, Vol. 64, July - August, 1976 1426 Elements of Glass, Ceramic Age, 1947 1427 W.W. Coffeen, How Enamels, Glasses and Glazes are Opacifies, Ceramic Industry, April - May, 1958 1428 C.T. Moynihan, P.B. Macedo, C.J. Montrose, P.K. Gupta, M.A. DeBolt, J.F. Dill, B.E. Dom, P.W. Drake, A.J. Easteal, P.B. Elterman, R.P. Moeller, H. Sasabe and J.A. Wilder, Structural Relaxation in Vitreous Materials, Annals of the New York Academy of Sciences, No. 279, 1976 15 Unit II, Nature of the Vitreous State 151 R.H. Doremus, Ch. 7 - Glass Transition, Glass Science, Unit III, Viscosity 152 H.E. Hagey, Rheological Behavior of Glass 153 A. Napiolitano and E.G. Hawkins, Standard Reference Materials: Viscosity of a Standard Lead-Silica Glass, November, 1966 154 P. Buarque de Macedo, Viscoelasticty of Glasses 155 R.H. Doremus, Ch. 6 - Viscosity, Glass Science Unit V, Glass Batching 156 Technical data on Perrico Glaze FritsPEMCO Technical Bulletin, No. 5011-a Unit VI, Glazes, Enamels, Theory of Bonding 157 J.A. Pask and M.P. Borom, Physical Chemistry of Glass-Metal Interfaces 158 M.P. Borom, J.A. Longwell and J.A. Pask, Reactions between Metallic Iron and Cobalt Oxide - Bearing Sodium Disilicate Glass, Journal of American Ceramic Society, February, 1967 Unit VII, Manufacture of Glass and Glass Articles 159 Glass, Vol. 10 Unit VIII, Glass Ceramics 1510 J.W. Cahn, Phase Separation by Spinodal Decomposition in Isotrophic Systems, The Journal of Chemical Physics, Vol. 42, No. 1, January, 1965 1511 J.W. Cahn and R.J. 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