Jeffrey Shock - Castle Rock CO, US Elam Leed - Pine Grove CO, US Jonathan McCann - Castle Rock CO, US
International Classification:
C03C 13/00 C03C 3/087 C03C 3/091 C03C 3/112
US Classification:
501 35, 501 70, 501 66, 501 57
Abstract:
A glass composition useful in preparing fiberglass comprises 12 to 25 weight % CaO; 12 to 16 weight % AlO; 52 to 62 weight % SiO; 0.05 to 0.8 FeO; and greater than 2 up to about 8 weight % alkali metal oxide.
Jeffrey Shock - Castle Rock CO, US Elam Leed - Pine Grove CO, US Jonathan McCann - Castle Rock CO, US
International Classification:
C03C 13/00 C03C 13/02
US Classification:
501 38, 501 35
Abstract:
A glass composition useful in preparing fiberglass comprises 12 to 25 weight % CaO; 12 to 16 weight % AlO; 52 to 62 weight % SiO; 0.05 to 0.8 FeO; and greater than 2 up to about 8 weight % alkali metal oxide.
Processes For Producing Molten Glasses From Glass Batches Using Turbulent Submerged Combustion Melting, And Systems For Carrying Out Such Processes
Jeffrey M. Shock - Castle Rock CO, US Jonathan McCann - Castle Rock CO, US
International Classification:
C03B 3/00
US Classification:
651359, 65335
Abstract:
Processes and systems for producing molten glass using submerged combustion melters, including densifying an initial composition comprising vitrifiable particulate solids and interstitial gas to form a densified composition comprising the solids by removing a portion of the interstitial gas from the composition. The initial composition is passed from an initial environment having a first pressure through a second environment having a second pressure higher than the first pressure to form a composition being densified. Any fugitive particulate solids escaping from the composition being densified are captured and recombined with the composition being densified to form the densified composition. The densified composition is fed into a feed inlet of a turbulent melting zone of a melter vessel and converted into turbulent molten material using at least one submerged combustion burner in the turbulent melting zone.
Burner Panels, Submerged Combustion Melters, And Methods
- Denver CO, US Michael William Luka - Littleton CO, US Jonathan McCann - Castle Rock CO, US Aaron Morgan Huber - Castle Rock CO, US Mark William Charbonneau - Highlands Ranch CO, US Paul Oscar Segar - Tucson AZ, US James E Graf - Littleton CO, US
Combustion burner panels, submerged combustion melters including one or more of the panels, and methods of making the same are disclosed. In certain embodiments, the burner panel includes a panel body having first and second major surfaces, at least one oxidant through-passage extending from the first to the second major surface, and at least one fuel through-passage extending from the first to the second major surface. Oxidant and fuel delivery conduits are positioned in the respective passages. The oxidant and fuel delivery conduits include proximal and distal ends, at least some of the distal ends positioned away from the first major surface of the panel body. In other embodiments the burner panels include a frame enclosing a porous material having through passages for fuel and oxidant. The burner panels may enable delaying combustion in a submerged combustion melter, and therefore promote burner life and melter campaign length.
Processes For Producing Molten Glasses From Glass Batches Using Turbulent Submerged Combustion Melting, And Systems For Carrying Out Such Processes
Processes and systems for producing molten glass using submerged combustion melters, including densifying an initial composition comprising vitrifiable particulate solids and interstitial gas to form a densified composition comprising the solids by removing a portion of the interstitial gas from the composition. The initial composition is passed from an initial environment having a first pressure through a second environment having a second pressure higher than the first pressure to form a composition being densified. Any fugitive particulate solids escaping from the composition being densified are captured and recombined with the composition being densified to form the densified composition. The densified composition is fed into a feed inlet of a turbulent melting zone of a melter vessel and converted into turbulent molten material using at least one submerged combustion burner in the turbulent melting zone.
Burner Panels, Submerged Combustion Melters, And Methods
- Denver CO, US Michael William Luka - Littleton CO, US Jonathan McCann - Orchard Park NY, US Aaron Morgan Huber - Castle Rock CO, US Mark William Charbonneau - Highlands Ranch CO, US Paul Oscar Segar - Tucson AZ, US James E. Graf - Littleton CO, US
Combustion burner panels, submerged combustion melters including one or more of the panels, and methods of making the same are disclosed. In certain embodiments, the burner panel includes a panel body having first and second major surfaces, at least one oxidant through-passage extending from the first to the second major surface, and at least one fuel through-passage extending from the first to the second major surface. Oxidant and fuel delivery conduits are positioned in the respective passages. The oxidant and fuel delivery conduits include proximal and distal ends, at least some of the distal ends positioned away from the first major surface of the panel body. In other embodiments the burner panels include a frame enclosing a porous material having through passages for fuel and oxidant. The burner panels may enable delaying combustion in a submerged combustion melter, and therefore promote burner life and melter campaign length.