Ambient condition effects on process heater efficiency

Process heaters are typically located outside and subject to the weather. Although heaters are typically tuned at a given set of conditions, actual operating conditions vary significantly from season to season and sometimes even within a given day. Unfortunately, most heaters are not properly adjust...

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Published inEnergy (Oxford) Vol. 34; no. 10; pp. 1624 - 1635
Main Authors Bussman, W.R., Baukal, C.E.
Format Journal Article
LanguageEnglish
Published Kidlington Elsevier Ltd 01.10.2009
Elsevier
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Online AccessGet full text
ISSN0360-5442
DOI10.1016/j.energy.2009.07.009

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Abstract Process heaters are typically located outside and subject to the weather. Although heaters are typically tuned at a given set of conditions, actual operating conditions vary significantly from season to season and sometimes even within a given day. Unfortunately, most heaters are not properly adjusted for actual operating conditions. Ambient air temperature, pressure and humidity all significantly impact process heater efficiency. This paper shows how changing ambient conditions can reduce efficiency if proper adjustments are not made. Combustion efficiency is related to air:fuel ratio and to air–fuel mixing. A general industry rule-of-thumb is that operating at 2–3% excess O 2 (dry basis) results in the best combination of efficiency and flexibility. At higher O 2 levels, efficiency is reduced because the additional O 2 and N 2 absorb heat, much of which exits the exhaust stack. At lower O 2 levels, efficiency can be substantially reduced because some fuel is uncombusted. Low O 2 levels can also lead to soot and coke buildup on process tubes reducing heat transfer to the process fluid and reducing efficiency. Several examples demonstrate how ambient conditions affect heater efficiency. Calculations and graphs for a wide range of operating conditions demonstrate how efficiency can be affected by changes in ambient conditions for process heaters.
AbstractList Process heaters are typically located outside and subject to the weather. Although heaters are typically tuned at a given set of conditions, actual operating conditions vary significantly from season to season and sometimes even within a given day. Unfortunately, most heaters are not properly adjusted for actual operating conditions. Ambient air temperature, pressure and humidity all significantly impact process heater efficiency. This paper shows how changing ambient conditions can reduce efficiency if proper adjustments are not made. Combustion efficiency is related to air:fuel ratio and to air-fuel mixing. A general industry rule-of-thumb is that operating at 2-3% excess O(2) (dry basis) results in the best combination of efficiency and flexibility. At higher O(2) levels, efficiency is reduced because the additional O(2) and N(2) absorb heat, much of which exits the exhaust stack. At lower O(2) levels, efficiency can be substantially reduced because some fuel is uncombusted. Low O(2) levels can also lead to soot and coke buildup on process tubes reducing heat transfer to the process fluid and reducing efficiency. Several examples demonstrate how ambient conditions affect heater efficiency. Calculations and graphs for a wide range of operating conditions demonstrate how efficiency can be affected by changes in ambient conditions for process heaters.
Process heaters are typically located outside and subject to the weather. Although heaters are typically tuned at a given set of conditions, actual operating conditions vary significantly from season to season and sometimes even within a given day. Unfortunately, most heaters are not properly adjusted for actual operating conditions. Ambient air temperature, pressure and humidity all significantly impact process heater efficiency. This paper shows how changing ambient conditions can reduce efficiency if proper adjustments are not made. Combustion efficiency is related to air:fuel ratio and to air–fuel mixing. A general industry rule-of-thumb is that operating at 2–3% excess O 2 (dry basis) results in the best combination of efficiency and flexibility. At higher O 2 levels, efficiency is reduced because the additional O 2 and N 2 absorb heat, much of which exits the exhaust stack. At lower O 2 levels, efficiency can be substantially reduced because some fuel is uncombusted. Low O 2 levels can also lead to soot and coke buildup on process tubes reducing heat transfer to the process fluid and reducing efficiency. Several examples demonstrate how ambient conditions affect heater efficiency. Calculations and graphs for a wide range of operating conditions demonstrate how efficiency can be affected by changes in ambient conditions for process heaters.
Process heaters are typically located outside and subject to the weather. Although heaters are typically tuned at a given set of conditions, actual operating conditions vary significantly from season to season and sometimes even within a given day. Unfortunately, most heaters are not properly adjusted for actual operating conditions. Ambient air temperature, pressure and humidity all significantly impact process heater efficiency. This paper shows how changing ambient conditions can reduce efficiency if proper adjustments are not made. Combustion efficiency is related to air:fuel ratio and to air-fuel mixing. A general industry rule-of-thumb is that operating at 2-3% excess O sub(2) (dry basis) results in the best combination of efficiency and flexibility. At higher O sub(2) levels, efficiency is reduced because the additional O sub(2) and N sub(2) absorb heat, much of which exits the exhaust stack. At lower O sub(2) levels, efficiency can be substantially reduced because some fuel is uncombusted. Low O sub(2) levels can also lead to soot and coke buildup on process tubes reducing heat transfer to the process fluid and reducing efficiency. Several examples demonstrate how ambient conditions affect heater efficiency. Calculations and graphs for a wide range of operating conditions demonstrate how efficiency can be affected by changes in ambient conditions for process heaters.
Author Baukal, C.E.
Bussman, W.R.
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10.1115/IMECE2008-68284
10.1016/j.energy.2006.08.008
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Issue 10
Keywords Process heater
Excess air
Excess O 2
Efficiency
Humidity
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SubjectTerms Applied sciences
Crude oil, natural gas and petroleum products
Efficiency
Energy
Exact sciences and technology
Excess air
Excess O 2
Fuels
Humidity
Process heater
Processing of crude oil and oils from shales and tar sands. Processes. Equipment. Refinery and treatment units
Title Ambient condition effects on process heater efficiency
URI https://dx.doi.org/10.1016/j.energy.2009.07.009
https://www.proquest.com/docview/21083526
https://www.proquest.com/docview/34878649
Volume 34
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