Integrated design, thermal testing and sustainability analysis of a motorized chicken roaster for low-carbon food processing

Nwauzi, Chinwendu Wealth and Philip, Stanislaus Chinemerem and Chidubem, Henry Ezedimbu and Cyprain, Favour Chuku (2025) Integrated design, thermal testing and sustainability analysis of a motorized chicken roaster for low-carbon food processing. World Journal of Advanced Engineering Technology and Sciences, 16 (2). pp. 290-294. ISSN 2582-8266

Abstract

This study presents the design, fabrication, and evaluation of a motorized chicken roaster optimized for both domestic and commercial use. 3D modeling was conducted in AutoCAD and SolidWorks to optimize the geometry, ensure assembly accuracy, and identify potential interference among components. Key components in contact with heat (rotisserie trays, shafts, chamber) were fabricated from stainless steel UNS S30400 for its excellent corrosion resistance, while the structural frame and base used cast steel (mild steel) for strength and fabrication ease. Performance testing conducted at a heating temperature of 162.78 °C, over 90 minutes achieved a final meat moisture content of 59%, closely aligning with the target of 60%, and a maximum heat penetration depth of 47.05 mm into the chicken core. The design incorporates options for cleaner heat sources (CNG gas or electric heating) to reduce CO₂ emissions and uses long-life recyclable materials to enhance sustainability. The final prototype demonstrated uniform cooking performance and met food safety standards, making it suitable for deployment in both domestic kitchens and commercial food service environments.

Item Type: Article
Official URL: https://doi.org/10.30574/wjaets.2025.16.2.1273
Uncontrolled Keywords: Motorized chicken roaster; SolidWorks modeling; Stainless steel S30400; Heat penetration depth; Eco-friendly heating; Moisture content; AutoCAD design; Green food Technology; Energy efficient roasting; Carbon footprint reduction; Food processing decarbonization; Sustainable food equipment design; Low emission food systems; Production engineering; Manufacturing technology; Process optimization; Thermal system design; Mechanical system reliability
Date Deposited: 15 Sep 2025 05:51
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URI: https://eprint.scholarsrepository.com/id/eprint/6083