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China Suppliers Factory for End Fire Glass Furnace - Continuous Melting with Low Energy Consumption

The regenerative end fired furnace is a vital asset for the glass industry, renowned for its exceptional flexibility and low energy consumption. This energy-efficient solution is ideal for producing a wide range of mass-produced glass products, including bottles, containers, tableware, and fiberglass. By utilizing minimal fossil fuel firing, this innovative furnace significantly reduces carbon dioxide emissions. As a leading supplier and factory in China, we are committed to providing high-quality regenerative furnaces that meet the needs of glass manufacturers while promoting sustainable production practices

    Description

    If sufficiently dimensioned, the regenerators effect heat recovery of the melting end firing and thus ensure an optimal reduction of energy consumption of the glass melting process. Slightly larger regenerators than necessary are an investment for the future, reducing maintenance effort and common energy consumption increase due to ageing. Additionally this allows a furnace enlargement at the next furnace repair with reduced glass-to-glass time and costs, when reusing the basic design and lower part of the regenerator.

    By designing the ports and superstructure properly very low emission values in respect of NOx and CO2 can be achieved. Since there is only one alternating flame in glass flow direction, its optimal adjustment is crucial for glass melting process. After furnace startup the first setting is usually done by experienced REFTECH® personnel for combustion optimization, ensuring an optimal melting performance from the start.

    A weir wall built into the bottom of the melting end, also called barrier, and a deep refining part increase flexibility and glass quality.

    The wall supports the convection in the glass bath, which improves melting. Additional electric boosting improves furnace flexibility and is advantageous in case of coloured glass production.

    Additional lances or burners at the furnace sidewall can be mounted in order to lower NOx emissions by staged combustion or increase melting capacity by oxy boosting. Most common is the application of a pressurized air lance in order to lower NOx and generally improve melting. This technology is known as gg ENOx and can be applied also while furnace operation. It is most suitable to improve furnaces not showing a good performance.

    Features

    1
    Low energy consumption
    2
    Low emission values
    3
    High flexibility in case of load change
    4
    High specific melting output
    5
    Long life

    Frequently Asked Questions

    How do regenerators help in reducing energy consumption?
    Sufficiently dimensioned regenerators effect heat recovery of the melting end firing, ensuring an optimal reduction of energy consumption. Using slightly larger regenerators reduces maintenance effort and prevents the common energy consumption increase caused by ageing.
    Can the regenerator design support future furnace enlargement?
    Yes. Reusing the basic design and lower part of a slightly larger regenerator allows for furnace enlargement during the next repair, significantly reducing both glass-to-glass time and overall costs.
    How are low NOx and CO2 emissions achieved in this system?
    Very low emission values in respect of NOx and CO2 are achieved by properly designing the ports and superstructure, optimizing the alternating flame adjustment, and utilizing combustion optimization technologies like staged combustion or pressurized air lances (gg ENOx).
    What is the purpose of the weir wall in the melting end?
    The weir wall (also called a barrier) is built into the bottom of the melting end to support convection in the glass bath. Together with a deep refining part, it improves the melting process, increases operational flexibility, and enhances glass quality.
    What is gg ENOx technology and when is it applied?
    gg ENOx is a technology that applies a pressurized air lance to lower NOx emissions and improve general melting performance. It can be applied during furnace operation and is highly suitable for improving the performance of underperforming furnaces.
    When is additional electric boosting recommended?
    Additional electric boosting is recommended to improve overall furnace flexibility and is particularly advantageous in the case of coloured glass production.

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