Tank Furnaces TRIZ Cases

Thermal imaging cameras replace discrete sensors to map furnace temperatures, reducing energy waste and refractory damage from slow response times.

Segmented melting tank circulation flow with vacuum degassing removes bubbles while cutting refining energy consumption by 40%.

Porous glass microspheres sustain internal vacuum for thermal insulation while resisting crushing pressure.

Horizontal electrode displacement dissipates thermal boundary layers and reduces FeO concentration, cutting wear by 40%.

Segmenting melting and heating units reduces thermal loss while submerged burners maintain heat transfer efficiency in the heated glass bath.

A hybrid glass furnace uses independent convection belts to circulate molten glass through distinct melting and refining zones.

Inlet apertures in the transition section sit below the phase boundary to extract molten glass, eliminating mechanical skimmers that fail during fining.

A glass melting furnace establishes a vertical temperature gradient to drive convection currents in the melt.

Microwave radiation couples energy directly into the glass melting reaction zone, eliminating combustion emissions while maintaining refractory integrity.

Raising temperatures above the zircon devitrification point prevents secondary crystal formation, eliminating defects while maintaining refractory stability.

Shields between adjacent heaters in a float bath block thermal interference, allowing precise temperature distribution across multiple control zones.

A submerged combustion auxiliary furnace feeds molten glass into the main furnace's first third to initiate preliminary melting and homogenization.

A melt heating system using ohmic resistance electrodes combined with selective vessel wall cooling to form a protective skull layer.

Electric resistance heating in a glass melting vessel reduces carbon footprint while maintaining high throughput and bubble-free quality.

A multi-tank glass furnace uses a common combustion chamber to melt different glasses simultaneously without mixing.

Segmented tank areas with electric heating allow switching between continuous and discontinuous operation while minimizing energy loss.

Preheating air oxidants with flue gas heat maintains furnace autonomy during oxygen supply interruptions while reducing fume volumes.

Relocating a removable dam to the hot furnace exit prevents frozen glass formation and reduces refractory wear.

A moving refining section separates gaseous inclusions via buoyancy, reducing volume from 40% to under 10% and improving fiber tensile strength.

Segmented depth zones separate bubbles from refined glass, resolving heat transfer blockage caused by stable foam layers.

Localized floor heating in a glass furnace slows the primary recirculation loop, extending refining time for ultra-clear glass while maintaining output.

Optimized alkali-free glass composition reduces thermal shrinkage without annealing, maintaining productivity.

Chromium-free zirconia refractory blocks prevent centrifuge orifice blockage from devitrification in high-alumina mineral wool production.

Controlled electrode resistivity prevents thermal runaway in refractory vessels, extending operational life during high temperature glass melting.

Segmented bottom wall layers prevent corrosion and erosion from molten glass seepage while maintaining Joule heating efficiency.

Optimizing the length-to-width ratio to 2.3-2.8 reduces heat loss while pure oxygen burners maintain melting capability.

Fluid-cooled refractory and metallic shell structures manage water condensate in submerged combustion glass melters.

Submerged combustion burners inject organic waste below the melt surface to convert violent turbulence into useful heat energy.

Iridium melt contact surface prevents oxygen bubbles and discoloration by blocking hydrogen diffusion in high-purity glass refining.