Cooking system interactions: Compatibility of energy source and container material

A laboratory experiment was performed to investigate the interaction between energy source and container material in surface cooking operations as determined by evenness of heating, speed of heating, and heat retention. Energy sources were a conventional gas burner, a conventional electric coil, an...

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Veröffentlicht in:Home Economics Research Journal 1990-12, Vol.19 (2), p.159-169
Hauptverfasser: Martin, A.D. (California Polytechnic Institute, San Luis Obispo, CA), Lovingood, R.P, Long, D.D, Schnepf, M.I
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Sprache:eng
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Zusammenfassung:A laboratory experiment was performed to investigate the interaction between energy source and container material in surface cooking operations as determined by evenness of heating, speed of heating, and heat retention. Energy sources were a conventional gas burner, a conventional electric coil, an electric resistance heater and induction coil, both under glass-ceramic; and a solid electric element. Cookware of thin- and heavy-gauge aluminum, porcelain enamel over thin-gauge steel, heavy-gauge stainless steel with a thick aluminum heat core, and glass-ceramic was combined with each of the energy sources to complete a cooking system. A General Linear Models Procedure was used to assess statistically the impact of each variable on test results. Duncan Multiple Range tests were performed to identify statistically significant differences between systems. Heavy-gauge aluminum and heavy-gauge stainless steel with a thick aluminum heat core produced the most even browning of crepes in all cooking systems. Regardless of the cookware used, the induction unit, gas burner, and conventional electric coil boiled water more quickly than did the other energy sources, while the solid element and the electric resistance coil under glass-ceramic retained more heat
ISSN:0046-7774
2374-8052
1552-3934
DOI:10.1177/1077727X9001900206