03.12.2012 Views

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

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

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

SHOW MORE
SHOW LESS

Create successful ePaper yourself

Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.

Tables<br />

Table II.1. Key End-Use Markets by Segment 31<br />

Table II.2. Estimated Cost of Manufacture by Cost Component (%) 31<br />

Table II.3. Energy by Process Stage 32<br />

Table II.4. Industry Segment Concentration 34<br />

Table II.5. Trend in value of glass products shipped 1997–2001 ($ million) 34<br />

Table II.6. Trend in Container <strong>Glass</strong> Shipments 35<br />

Table II.7. US Flat <strong>Glass</strong> Production 1980 to 2000 36<br />

Table II.8. <strong>Glass</strong> Fiber Insulation Dem<strong>and</strong> by Market 1990-2010 38<br />

Table II.9. US Value of <strong>Glass</strong> Shipments 39<br />

Table II.10. Melter Rebuild Cost by <strong>Glass</strong> Industry Segment 40<br />

Table II.11. Direct Container <strong>Glass</strong> Costs 41<br />

Table II.12. Reduction in Energy Cost (%) Required to Earn 10% to 20% 45<br />

Return on a $1Million Capital Investment per <strong>Glass</strong> Furnace<br />

Table III.1. Advantages <strong>and</strong> Disadvantages of Electric <strong>Melting</strong> 57<br />

Table IV.I. RAMAR compared to conventional melting systems 83<br />

Table VI. Objectives <strong>and</strong> Goals for 2020 101<br />

Table 2.1 Key Performance indicators (KPI) 138<br />

Table A.1. Categorization of Liberature 189<br />

Table A.2. Categorization of Patents 215<br />

Figures<br />

Figure I.1. Quality, Energy, Throughput Choices. 13<br />

Figure I.2. Energy consumption of 123 glass furnaces globally, ranked low to high. 14<br />

Figure I.3. Sankey diagram of energy flows in the most energy-efficient container glass 16<br />

furnace—end port regenerative without electric boosting—normalized to 50% cullet,<br />

without batch preheating.<br />

Figure II.1. Trend in Flat <strong>Glass</strong> Sales for 25 years. 46<br />

Figure III.1. End Port Melter 52<br />

Figure III.2. Side Port Melter 53<br />

Figure III.3. Unit Melter 54<br />

Figure IV.1. PPG P-10 Primary Melter, Secondary Melter, <strong>and</strong> Vacuum Refining 62<br />

Figure IV.2. GRI’s Advanced <strong>Glass</strong> Melter 69<br />

Figure IV.3. BOC E-Batch Design 75<br />

Figure IV.4. Rapid <strong>Melting</strong> <strong>and</strong> Refining (RAMAR) Owens-Illinois (pellet et al. 1973;<br />

Barton, 1993). 82<br />

Figure 1.1. General Flow of <strong>Glass</strong> Manufacture 113<br />

Figure 3.A.1.. Submerged Combustion Melter Schematic. 153<br />

Figure 3.B.1. High-Intensity Plasma <strong>Glass</strong> Melter Schematic 162<br />

Figure 3.D.1. Schematic arrangement of sections of a segmented melter, with typical<br />

temperature levels, residence times, <strong>and</strong> heating options. 178<br />

269

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!