Glass Melting Technology: A Technical and Economic ... - OSTI

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Schulz, R. L., Z. Fathi, D. E. Clark, and G. G. Wicks, “Microwave Processing of Simulated Nuclear Waste Glass,” pp. 451-8 in Ceramic Transactions, Vol. 21 Microwaves: Theory & Applications in Materials Processing. Edited by D. E. Clark, F. D. Gac, and W. H. Sutton. American Ceramic Society, Westerville, Ohio, 1991. Schwalbe, F. G., “Briquetting of Glass Batch,” Ceram. Ind., 30 [6] 34, 37 (1938). Schwalbe, F. G., “Improvement in Tank-Furnace Design,” Glass Ind., 25 [12] 550–553, 562 (1944). Schwalbe, F. G., “Twenty Years of Progress in Glass Melting,” Glass Ind., 21 169–170, 202 (1940). Seddon, E., “The Assessment of the Thermal Performance of Tank Furnace for Melting Glass. A Report by the Furnace Committee,” J. Soc. Glass Technol., 28 33–52 (1944). Senior, D., “From Deep Refiner Technology to Mathematical Modelling,” Glass (London), 78 [3] 86–87 (2001). Senkevich, N. A., and O. D. Khait, “Glass Tank Furnaces with Two Production Basins for Melting Crystal Glass,” Glass Ceram. (Engl. Transl.), 31 [10] 730–733 (1974). Sethi, G., “Energy Efficiency in Glass Melting,” Glass Int., 25 [1] 44–45 (2002). Sevast’yanov, R. I., “Use of Electric Power in Glass Melting,” Glass Ceram. (Engl. Transl.), 51 [3] 105–108 (1994). Seward, T. P., “Some Aspects of Oxy-Fuel Glass Melting,” Glass Technol., 38 [5] 150–151 (1997). Shapiro, M. D., A. I. Tyurin, and Y. Lashenkov, “Using Heat from Glassmelting Furnace Waste Gases,” Glass Ceram. (Engl. Transl.), 37 [11] 568–569 (1980). Shershnev, Y. M., “New Equipment in the Glass-melting Industry,” Refract. Ind. Ceram., 40 [9/10] 414 (1999). Shin, J. S., “Pelletizing Glass Batches,” Yo-up Hoeji, 9 [2] 44–46 (1972). Shur, M. F., and L. M. Silberfarb, “The Problem of Glass Melting from Briquetted Batch,” J. Soc. Glass Technol., 14 247–248A (1930). Shute, R. L., and A. E. Badger, “Portland Cement in Glass Batch Briquets,” Glass Ind., 21, 28 (1940). Sibiryakov, V., V. Yageman, and K. Pchelyakov, “Effect of Free Convection of Molten Glass on Heat Transfer in Tank Furnaces,” Glass Ceram. (Engl. Transl.), 35 [9-10] 577–579 (1978). Sibiryakov, V. A., “Fining and Cooling of Glassmelt during the Melting of Glass in a Glass Furnace,” Proizvod. Issled. Stekla Silik. Mater., 5, 32–38 (1976). Simpson, W., “Calumite Blast-Furnace Slag is a Glass Batch Material,” Glastech. Ber., 57 [3] 45–51 (1984). Simpson, W., “Calumite Slag as a Glassmaking Raw Material for the Increase of Furnace Productivity,” Glass Technol., 17 [1] 35–40 (1976). Sims, R., “The Five Principles of Glass Conditioning,” Glass (London), 79 [1] 30–32 (2002). Sims, R., “Small Revolution in Furnace Design,” Glass (London), 68 [10] 423–425 (1991). Sinevich, A. K., “Use of Synthetic Amorphous Silica for Melting of Silicate Glasses,” Glass Ceram., 1987 [2] 78– 79 (1987). Sismey, C. J., “Limitations Affecting the Performances of Glass Melting Furnaces,” Glass Technol., 25 [2] 83–90 (1984). Sismey, C. J., “Recuperators in the Glass Industry,” Glass (London), 64 [4] 149–150 (1987). Smith, D. P., “Secondary Regenerators Used in Glass Melting Furnaces,” Glass Prod. Technol., 1990 69–71 (1990). Smith, M. A., and R. R. Thomas, “Corning's Moly Delivery Systems Perform Well,” Glass Ind., 72 [13] 22–28 (1991). Smrcek, A., and J. Smrcek, “Regularities in Heat Consumption during the Melting of Glass in the Tank Furnace: III, Principles of Tank Furnace,” Sklar Keram., 35 [4] 97–101 (1985). Smrcek, J., and J. Simunek, “Maximum Melting Rate in a Glass Tank,” Sprechsaal, 113 [5] 330–336 (1980). Snyder, W. J., R. P. Chamberland, F. N. Steigman, and C. J. Hoyle, “Economic Aspects of Preheating Batch and Cullet for Oxy-Fuel-Fired Furnaces,” Ceram. Eng. Sci. Proc., 22 [1] 55–70 (2001). Sparidaens, A.J.C.M., “Batch Pelletisation - The Key to Glass Quality Improvement,” Glass Technol, 32 [5] 149– 152 (1991). Spinosa, E. D., and D. E. Ensminger, “Sonic Energy as a Means to Reduce Energy Consumption during Glassmelting,” Ceram. Eng. Sci. Proc., 7 [3-4] 410–425 (1986). Spinosa, E. D., and D. E. Ensminger, “Sonic Energy Reduces Energy Consumption during Melting,” Glass Ind., 68 [4] 10, 3–6 (1987). Spirin, Y. L., “Trends in Improving Furnaces for Melting Low-Alkali Batches,” Glass Ceram. (Engl. Transl.), 29 [9-10] 571–573 (1972). SRI International, “Textile Glass Fibers — United States,” Chemical Economics Handbook, 1995. Srivastava, R. C., “Glass Currents in Tank Furnace,” Glass Udyog, 14 [4] 31–32 (1985). 263
“Standard Terminology of Glass and Glass Products,” ASTM Standard C162-99. 2000 Annual Book of Standards, Vol. 15.02. American Society for Testing and Materials, West Conshohocken, Penn., 2000. U.S. Department of Commerce, Bureau of the Census, Current Industrial Reports. Stanek, J., “Glassmelting Intensification by Bubbling and Heat Boosting,” Sklar Keram., 29 [8] 225–227 (1979). Stanek, J., “New Aspects in Melting of Glass,” J. Non-Cryst. Solids, 26 [1-3] 160–78 (1977). Stanek, J., “Problems in Electric Melting of Glass,” J. Non-Cryst. Solids, 123 [1-3] 400–414 (1990). Stepanenko, M. G., L. K. Kovalev, and B. M. Polik, “A Combination Furnace for Glass Manufacture,” Keram. Steklo, 1938 [3] 31–39 (1939). Stewart, D. R., “Concepts of Glass-Ceramics”; pp. 237–271 in Introduction to Glass Science. Eds., L. D. Pye, H. J. Stevens, and W. C. LaCourse. Plenum Press, New York, 1972. Stoch, Z., and W. Pater, “Influence of Selected Glass Batch Factors on the Melting Process,” Silikattechnik, 31 [12] 364–366 (1980). Streicher, E., O. Marin, O. Charon, and H. Borders, “Oscillating Combustion Technology Boosts Furnace Efficiency,” Ind. Heat., 68 [2] 35–39 (2001). Suesser, V., “Effect of Charge Sintering on Glass Smelting,” Veda Vyzk. Prum. Sklarskem., 8 33–46 (1963). Sun, C., and J. Le, “Energy Saving Effect with Honeycomb Crown,” Glass Technol., 41 [4] 140–142 (2000). Sundaram, S. K., Hsu J-Y, and R. F. Speyer, “Molten Glass Corrosion Resistance of Immersed Combustion-Heating Tube Materials in E-Glass,” J. Am. Ceram. Soc., 78 [7] 1940–1946 (1995). Tackels, G., “What Impact Will IPPC Have on the Glass Maker?” Glass (London), 78 [3] 101–103 (2001). Takasu, T., K. Sassa, and S. Asai, “A Glass Melting by Use of a High Frequency Induction Skull Melting Method with Submerged Heating Elements and Its Heat Conduction Analysis,” Tetsu-To-Hagane/Journal of the Iron and Steel Institute of Japan, 80 [3] 13–18 (1994). Takeshita, S., S. Nakajima, and C. Tanaka, “Refining of Boro-Silicate Glasses under Subatmospheric Pressures,” Rep. Res. Lab. Asahi Glass, 43 [1] 1–9 (1993). Tang, J., and A. R. Cooper, “Application of Pure Oxygen with Batch Preheating to Glass-melting Furnaces,” Am. Ceram. Soc. Bull., 69 [11] 1827 (1990). Tang, Y., and G. H. Frischat, “Influence of Small Additions of Li2O Raw Materials on Glass Melting,” Glastech. Ber. Glass Sci. Technol., 68 [7] 213–221 (1995). Tatevosyan, K., T. Vardanyan, Y. Petrosyan, and B. Petrosyan, “Tests of an Experimental Electric Glass-melting Furnace,” Glass Ceram. (Engl. Transl.), 43 [9-10] 387–390 (1986). Tatevosyan, K. M., “Determination of the Optimal Depth of the Tank of Electric Glass-melting Furnaces,” Glass Ceram. (Engl. Transl.), 40 [7-8] 401–406 (1983). Tatevosyan, K. M., “Results of Testing a New Electric Glass-melting Furnace,” Glass Ceram. (Engl. Transl.), 51 [7/8] 241–244 (1994). Tatevosyan, K. M., K. A. Kostanyan, and R. B. Korukhchyan, “Tests on a New Glass Furnace,” Glass Ceram. (Engl. Transl.), 39 [12] 589–591 (1982). Taylor, J. A., “A Small Electric Arc Furnace for Melting and Pouring Glasses and Corrosive Slags,” Bull. Am. Ceram. Soc., 18 [8] 297 (1939). Teisen, K., “Changing Criteria of Furnace Designs for the Container Industry and the Role of the Side Fired Recuperative Glass Melting Tank,” Glass Technol., 32 [3] 75–81 (1991). Teisen, T., “Development of Glass Furnaces on the Continent—Description of the Hermansen Furnace,” J. Soc. Glass Technol., I, 74–87 (1917). Thiele, H., and S. Jacob, “Chemical Reactions in [Prereacted Batch] Transformation Changes and Their Influence on Melting Behavior,” Silikattechnik, 31 [8] 241–244 (1980). Thurmer, A., and G. Glaser, “Glass Melting and Glass Properties in Relation to Physical Conditions of Batch Materials,” Glass, 15 [8] 316–319 (1938). Tiwary, R., D. Stickler, and J. Woodroffe, “Numerical Modeling of Reacting Liquid Glass Layer in an Advanced Glass Melter,” J. Am. Ceram. Soc., 71 [9] 761–766 (1988). Tiwary, R., D. Stickler, and J. Woodroffe, “Rapid Heating of a Glass Batch in an Advanced Glass Melter,” J. Am. Ceram. Soc., 71 [9] 748–753 (1988). Tiwary, R., D. B. Stickler, and J. Woodroffe, “Numerical Modeling to Support Engineering Development of an Advanced Glass Melter,” Am. Ceram. Soc. Bull., 67 [11] 1791–1796 (1988). Tiwary, R. S., D.; Woodroffe, J., “Numerical Modeling of Glass Formation Process in an Advanced Glass Melter,” J. Am. Ceram. Soc., 71 [9] 754–760 (1988). 264
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Glass Melting Technology: A Technic
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Disclaimer This document was prepar
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Glass Melting Technology: A Technic
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cyclical economy. Specialty glass m
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Reference The report is supplemente
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Preface The glass industry is under
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While this section was not a major
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5. All traditional glass segments a
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• Energy issues Glass melting is
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The issue of funding for research a
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Chapter I Technical Assessment of G
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process when it introduced continuo
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Figure I.1. Quality, Energy, Throug
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credible forecasts that energy cost
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Capital-intensive manufacturing bus
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silica sand with a variety of indus
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I.4. Motivation to advance melting
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would be possible with a more detai
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efining, higher performance refract
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A major regional producer, the Unit
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continues to operate using technolo
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The percentage used for batch melti
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having fewer producers of major com
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Flat glass Forecasters predict an a
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glass fiber in some applications an
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With the high capital cost of new g
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The economic viability of electric
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development and capital investment
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investment of the traditional glass
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and increase cooperation on the hig
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The melting processes for silica-ba
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In the regenerative furnace, two re
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• Unit melter The unit melter is
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Furnace emissions are reduced and t
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glass. Electric boost is often used
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materials, state-of-the-art equipme
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Figure IV.1. PPG P-10 Primary Melte
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system. Applications for the techno
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stable and controlled operating pro
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Four test series using oxy-gas burn
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In the AGM melting process, mixed b
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Melter controls are extremely sophi
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simplify heat exchange technique th
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square or rectangular hopper locate
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After operating for over 12 years,
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The modular design of the device ma
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A single-phase 600-KW saturable rea
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IV.9.2. Fusion et Affinage Rapide (
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gases leave this compartment and gi
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Chapter V Industry Perspective on M
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problems that confront the entire i
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and port structures. Fuel savings o
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Glass manufacturers of all products
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here. To remain vigorous and compet
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RAY RICHARDS holds a BS in chemistr
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Chapter VI Vision for Glassmaking V
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VI.3. Economic perspective The majo
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and facility construction and plant
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Introduction In the course of gener
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totally replaced by barium, zinc or
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of soda. Other raw materials includ
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Batch melting in combustion furnace
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1.3. Detailed description of the fu
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increase reactions in soda-lime-sil
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promoted by the addition of fine-gr
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The presence of some distinct solid
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surface and escape from the melt. S
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Homogenization can also be aided by
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Batch melting strongly depends on t
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downstream operations, these bubble
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furnaces generally have better spec
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fundamental change in heat transfer
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or long-term trends and judges the
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Thermal momentum Thermal momentum i
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elative to a defined zero with prec
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glassmaking have proven to be more
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• Fuzzy Control Automation soluti
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• Oxygen furnace (MPC) • Refine
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3.A. Submerged Combustion Melting N
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• The Year 1 go-no-go decision po
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splitting the fuel-oxidant mixture
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and has proved highly reliable. The
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The project team has agreed to form
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3.B. High-Intensity Plasma Glass Me
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Plasmelt will utilize a full-scale
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Plasmelt has assembled a world-clas
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maintained as a process development
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entrainment by reducing melter size
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Glass melting began two weeks befor
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3.C. Advanced Oxy-Fuel Fired Front-
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3.D. Segmented Melting System Ruud
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supplemental energy input in a form
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Appendix A. Literature Review Glass
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A.2. Manufacturing flexibility Plac
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A.5. Recycled cullet use Increased
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Technology for direct heating withi
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and diverting funds from R&D and ot
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RR e c o m m e n d C o m p a n y s
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RR ee c o m m e n d s e c oo n dd l
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RR ee c o m m e n d C o m p a n y s
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RR e c o m m e n d s e c oo n d l o
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RR e c o m m e n d C o m p a n y s
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A u tt h o r // t i t l e / y e a r
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Page 229 and 230: RR e c o m m e n d C o m p a n y s
Page 232 and 233: Appendix A2 Categorization of Paten
Page 234 and 235: R ee cc o m mm e nn dd C o m pp a n
Page 236 and 237: RR e c oo mm m e n dd C o m p a n y
Page 238 and 239: R e c o m m e nn d C o m p a nn y s
Page 240 and 241: R ee c o m m ee n d C o m p a n yy
Page 242 and 243: R e c o m m e nn d C o m p a n y s
Page 244 and 245: R ee c o m m ee n d C o m p a n yy
Page 246 and 247: R e c o m m e nn d C o m p a n y s
Page 248 and 249: R e c o m m e n d C o m p a n yy s
Page 250 and 251: R e c oo m m e n d s e c o n d l o
Page 252 and 253: R ee c o m m ee nn d s e c o nn d l
Page 254 and 255: R e c o m m e n d s e c o n d l o o
Page 256 and 257: Appendix B Glossary amortization: A
Page 258 and 259: eduction costs could purchase exces
Page 260: Seg-Melt: Glass melting furnace tha
Page 263 and 264: Associate Members: Advanced Manufac
Page 265 and 266: (C.6. Resource Contacts - Continued
Page 268 and 269: BIBLIOGRAPHY Abbott, E., “Compari
Page 270 and 271: Bezborodov, M. A., “The Effect of
Page 272 and 273: Enninga, G., K. Dytrych, and H. Bar
Page 274 and 275: Kawachi, S., M. Kato, and Y. Kawase
Page 276 and 277: McCauley, R. A., “Evolution of Fl
Page 278 and 279: Pieper, H., “Flexible Melting Fur
Page 282 and 283: Tooley, F. V., Handbook of Glass Ma
Page 284: contributed by Nancy Lemon, Knowled
Page 288 and 289: INDEX Accelerated melting, 66-69, 9
Page 290 and 291: 71-72; Successes, 11; PPG P-10 Proc
Page 292: ISBN: 0-9761283-0-6 Printed in the
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