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Study on the Heat Transfer Mechanism of Thin-Walled Coke Oven with Finite Difference Method

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Finite difference method is a relatively simple, accurate and effective way to solve the deferential equation of the oven wall's unstable heat conduction. In this paper, we apply the finite difference method to calculate the heat flow, heat storage and the wall temperature of the carbonization chamber in detail when the oven wall's thickness is 100 mm, 80 mm, 60 mm, respectively. Theoretical calculation results came to the important conclusion that the sidewall temperature of the carbonization chamber increases contrarily as the oven wall's thickness decreases, which supports the further development of thin-walled coke oven.

Keywords: FINITE DIFFERENCE METHOD; HEAT TRANSFER MECHANISM; THIN-WALLED COKE OVEN

Document Type: Research Article

Publication date: 01 June 2013

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  • Journal of Green Science and Technology is a multidisciplinary peer-reviewed journal consolidating research activities in all experimental and theoretical aspects of green science, engineering, technology and medicine into a single and unique reference source. This journal deals with interdisciplinary research areas such as naturally occurring materials, biomaterials, new eco-friendly and safer chemicals, methods and techniques for developing environmentally friendly novel materials, agriculture research, food science, water sources, toxicology, environment in connection with packaging industries, transportation, construction, daily consumer goods, electronics, photonics, optics, machinery, occupational medicine, epidemiology, microbiology, biomedical industries, man-made materials and chemicals, energy conservation, rural and urban development, pollution, biomass and other related research fields, industrial ecology, aspects of renewable energy technologies, scientific studies of environmental impact, development of eco-friendly and safe electronic materials and devices for semiconductor industries, biobased materials and bioenergy, next generation materials and biofuels, biopolymers and composites, hybrid materials, nanoscience and nanotechnology, theoretical and computational approaches related to green science, solar energy materials, effect of electromagnetic radiation on human health, cell phones, computers, impact of pollution on environment, biohazards, safe medicine, applications of green science in pharmaceuticals, medicines, biology and biotechnology, and much more.
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