An Integrated Approach via Design, Experiment, and Simulation for the Development of a Pot‐Type Stove for Energy‐Intensive Cooking Tasks.
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| Title: | An Integrated Approach via Design, Experiment, and Simulation for the Development of a Pot‐Type Stove for Energy‐Intensive Cooking Tasks. |
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| Authors: | Gómez‐Heleria, Delmer1 (AUTHOR), Núñez, José1 (AUTHOR), Beltrán, Alberto2 (AUTHOR) albem@materiales.unam.mx, Berrueta, Víctor M.3 (AUTHOR), García, Carlos A.1 (AUTHOR), Masera, Omar R.4 (AUTHOR) |
| Source: | Energy Science & Engineering. Apr2025, Vol. 13 Issue 4, p1798-1806. 9p. |
| Subject Terms: | *Biomass stoves, *Thermal efficiency, *Energy consumption, *Stoves, *Combustion |
| Abstract: | This investigation aims to develop a device that meets the specific requirements of energy‐intensive household cooking tasks, such as the nixtamalization process. In particular, a pot‐type biomass stove is designed and built. A computer‐aided design (CAD) model of the stove was created, followed by a metal prototype. Thermal performance was evaluated by means of numerical simulations as well as experimental thermographic images. The numerical and experimental results were compared, and the quantitative correlation was found to be in good agreement. The results show that this stove can handle energy‐intensive cooking tasks like nixtamalization of maize. The development of this stove resulted in significant improvements in thermal efficiency and fuel consumption when compared to conventional stoves. [ABSTRACT FROM AUTHOR] |
| Database: | Energy & Power Source |
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| Abstract: | This investigation aims to develop a device that meets the specific requirements of energy‐intensive household cooking tasks, such as the nixtamalization process. In particular, a pot‐type biomass stove is designed and built. A computer‐aided design (CAD) model of the stove was created, followed by a metal prototype. Thermal performance was evaluated by means of numerical simulations as well as experimental thermographic images. The numerical and experimental results were compared, and the quantitative correlation was found to be in good agreement. The results show that this stove can handle energy‐intensive cooking tasks like nixtamalization of maize. The development of this stove resulted in significant improvements in thermal efficiency and fuel consumption when compared to conventional stoves. [ABSTRACT FROM AUTHOR] |
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| ISSN: | 20500505 |
| DOI: | 10.1002/ese3.70008 |
