Ceramic high temperature plate fin heat exchanger: Experimental investigation under high temperatures and pressures

•Heat transfer tests for OSF ceramic heat exchanger with air flows up to 160 N m3 h−1.•Prove of high temperature and pressure level stability of a ceramic heat exchanger.•Heat transferred up to six kilowatt and effectiveness up to 97% has been achieved.•Colburn and friction factor correlations can o...

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Veröffentlicht in:Applied thermal engineering 2019-03, Vol.151, p.364-372
Hauptverfasser: Haunstetter, Jürgen, Dreißigacker, Volker, Zunft, Stefan
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creator Haunstetter, Jürgen
Dreißigacker, Volker
Zunft, Stefan
description •Heat transfer tests for OSF ceramic heat exchanger with air flows up to 160 N m3 h−1.•Prove of high temperature and pressure level stability of a ceramic heat exchanger.•Heat transferred up to six kilowatt and effectiveness up to 97% has been achieved.•Colburn and friction factor correlations can only be used to a limited extend. Ceramic materials enable operation in high temperature and harsh environments and can so exceed the capabilities of comparable metal heat exchangers. For the use in power plant applications and high temperature processes a heat exchanger has to operate under both high temperature and high pressure levels. So far, the operation of a ceramic heat exchanger under such conditions has not been investigated. This work presents a ceramic heat exchanger prototype with modified offset-strip-fin design, which was experimentally investigated in a specifically designed test environment. Experimental tests were conducted with air as a heat transfer fluid at temperatures up to 800 °C, absolute pressures up to 5 bar and norm volume flows up to 160 N m3 h−1. The functionality under high temperatures and absolute pressures could be proven. The paper reports measured performances of the heat exchanger prototype, for which heat transferred up to six kilowatt and effectiveness up to 97% has been achieved. A comparison of Colburn and friction factors with correlations from literature was conducted, too. Good agreement for Colburn prediction of the flue gas channels could be shown, but the investigation also reveals a limited applicability for the friction factor and the Colburn factor of the process gas channel.
doi_str_mv 10.1016/j.applthermaleng.2019.02.015
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Ceramic materials enable operation in high temperature and harsh environments and can so exceed the capabilities of comparable metal heat exchangers. For the use in power plant applications and high temperature processes a heat exchanger has to operate under both high temperature and high pressure levels. So far, the operation of a ceramic heat exchanger under such conditions has not been investigated. This work presents a ceramic heat exchanger prototype with modified offset-strip-fin design, which was experimentally investigated in a specifically designed test environment. Experimental tests were conducted with air as a heat transfer fluid at temperatures up to 800 °C, absolute pressures up to 5 bar and norm volume flows up to 160 N m3 h−1. The functionality under high temperatures and absolute pressures could be proven. The paper reports measured performances of the heat exchanger prototype, for which heat transferred up to six kilowatt and effectiveness up to 97% has been achieved. A comparison of Colburn and friction factors with correlations from literature was conducted, too. 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Ceramic materials enable operation in high temperature and harsh environments and can so exceed the capabilities of comparable metal heat exchangers. For the use in power plant applications and high temperature processes a heat exchanger has to operate under both high temperature and high pressure levels. So far, the operation of a ceramic heat exchanger under such conditions has not been investigated. This work presents a ceramic heat exchanger prototype with modified offset-strip-fin design, which was experimentally investigated in a specifically designed test environment. Experimental tests were conducted with air as a heat transfer fluid at temperatures up to 800 °C, absolute pressures up to 5 bar and norm volume flows up to 160 N m3 h−1. The functionality under high temperatures and absolute pressures could be proven. The paper reports measured performances of the heat exchanger prototype, for which heat transferred up to six kilowatt and effectiveness up to 97% has been achieved. A comparison of Colburn and friction factors with correlations from literature was conducted, too. 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Ceramic materials enable operation in high temperature and harsh environments and can so exceed the capabilities of comparable metal heat exchangers. For the use in power plant applications and high temperature processes a heat exchanger has to operate under both high temperature and high pressure levels. So far, the operation of a ceramic heat exchanger under such conditions has not been investigated. This work presents a ceramic heat exchanger prototype with modified offset-strip-fin design, which was experimentally investigated in a specifically designed test environment. Experimental tests were conducted with air as a heat transfer fluid at temperatures up to 800 °C, absolute pressures up to 5 bar and norm volume flows up to 160 N m3 h−1. The functionality under high temperatures and absolute pressures could be proven. The paper reports measured performances of the heat exchanger prototype, for which heat transferred up to six kilowatt and effectiveness up to 97% has been achieved. A comparison of Colburn and friction factors with correlations from literature was conducted, too. Good agreement for Colburn prediction of the flue gas channels could be shown, but the investigation also reveals a limited applicability for the friction factor and the Colburn factor of the process gas channel.</abstract><cop>Oxford</cop><pub>Elsevier Ltd</pub><doi>10.1016/j.applthermaleng.2019.02.015</doi><tpages>9</tpages></addata></record>
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subjects Ceramic plate-fin heat exchanger
Ceramics
Design modifications
Electric power generation
Experimental investigation
Flue gas
Friction factor
Heat exchangers
Heat transfer
High temperature
High temperature heat exchanger
Offset-strip-fin heat exchanger
Plate-fin heat exchangers
Pressure drop
title Ceramic high temperature plate fin heat exchanger: Experimental investigation under high temperatures and pressures
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