Experimental and Numerical Model for Thermal Design of Air Cooled Condenser

Article ID

1VQ35

Experimental and Numerical Model for Thermal Design of Air Cooled Condenser

Ali Hussain Tarrad
Ali Hussain Tarrad Private Consultant Engineer
Ali Farhan Altameemi
Ali Farhan Altameemi
DOI

Abstract

The present work outlines a simple procedure for the thermal design of air cooled heat exchanger. The step by step numerical technique is implemented a long the steam flow direction to ratea vertical orientation single pass two tube rows heat exchanger. A saturated steam at atmospheric pressure of flow rate ranged between (18-36) kg/hr was passed throughout the tubes to provide a steam velocity in the range between (3.5) and (7) m/s. The condenser entering air dry bulb temperature was ranged between (21) and (42) oCand condensation load capacity fell in the range of (11) and (22.5) kW. The air flow rate was (1200) cfm and (2400) cfm corresponding air face velocities of (3 and 6) m/s. The simulated data showed excellent agreement with the measured rating parameters regarding the heat exchanger load duty and exit air cooling temperature. The respective discrepancy for the heat duty was within (12) % and (-5) % and the exit air temperature was underestimated by (5) %.

Experimental and Numerical Model for Thermal Design of Air Cooled Condenser

The present work outlines a simple procedure for the thermal design of air cooled heat exchanger. The step by step numerical technique is implemented a long the steam flow direction to ratea vertical orientation single pass two tube rows heat exchanger. A saturated steam at atmospheric pressure of flow rate ranged between (18-36) kg/hr was passed throughout the tubes to provide a steam velocity in the range between (3.5) and (7) m/s. The condenser entering air dry bulb temperature was ranged between (21) and (42) oCand condensation load capacity fell in the range of (11) and (22.5) kW. The air flow rate was (1200) cfm and (2400) cfm corresponding air face velocities of (3 and 6) m/s. The simulated data showed excellent agreement with the measured rating parameters regarding the heat exchanger load duty and exit air cooling temperature. The respective discrepancy for the heat duty was within (12) % and (-5) % and the exit air temperature was underestimated by (5) %.

Ali Hussain Tarrad
Ali Hussain Tarrad Private Consultant Engineer
Ali Farhan Altameemi
Ali Farhan Altameemi

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Ali Hussain Tarrad. 2015. “. Global Journal of Research in Engineering – A : Mechanical & Mechanics GJRE-A Volume 15 (GJRE Volume 15 Issue A3): .

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Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

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GJRE-A Classification: FOR Code: 091307
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Experimental and Numerical Model for Thermal Design of Air Cooled Condenser

Ali Hussain Tarrad
Ali Hussain Tarrad Private Consultant Engineer
Ali Farhan Altameemi
Ali Farhan Altameemi

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