Surface heating for Arctic vessels and structures to prevent snow and ice accumulation

Baen, P.R.; Oldford, Dan

doi:10.1109/pciceurope.2014.6900066

Cited by 3 publications

(1 citation statement)

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“…2, 2008) classify only the required minimum heat loads instead of the heating power of specific components or equipment. They do not consider changes in heating power in the engineering environment (Baen and Oldford, 2014). Consequently, an unreasonable amount of heat is supplied in actual operations (Ryerson, 2011;Brazil et al, 2013;Roeder et al, 2017), wasting energy and putting an additional burden on the electric power system.…”

Section: Introductionmentioning

confidence: 99%

Influence Analysis of Convective Heat Transfer of Circular Tubes and Flat Plates in a Polar Environment

Liu

et al. 2022

Front. Energy Res.

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Electric heating serves as a major cold-proof measure because engineering equipment often loses efficacy in harsh weather conditions in a polar environment. Because Convective heat transfer is the key issue to solve the cold-proof design, this paper analyzes convective heat transfer of tube and plate in the constant heat flow heating mode. According to fluent numerical simulation analysis with a wind speed of 0–40 m/s and a temperature of −40°C–0°C, both an increase in wind speed and a decrease in temperature would cause the growth of the convective heat transfer coefficient of circular tubes and flat plates, Wind speed displayed a more significant impact on convective heat transfer. In a low-temperature laboratory, a model experiment of convective heat transfer was carried out to validate the reliability of the numerical simulation. Last, a prediction model for convective heat transfer coefficient of circular tubes and flat plates in polar environment was developed using numerical and experimental data.

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Section: Introductionmentioning

confidence: 99%