D. C. Erickson, A. Gomezplata
Rearrangement of the Colburn-Drew equations, which model mass transfer in a binary mixture, leads to a combined coefficient for diffusion and bulk flow contributions. Using a two-film model, relative mass transfer resistances are derived for each film, simplifying the process of quantifying mass transfer resistance for ammonia-water GAX components. The difficulty of non-linearity in the original equations is addressed through this rearrangement, culminating in a form that mirrors classical mass transfer equations and allows for the assessment of individual contributions from equimolal diffusion and unicomponent diffusion. This formulation enhances the ease of solving the equations by assuming a constant parameter, rendering it valuable for modeling mass transfer across multiple films. Furthermore, once mass transfer is quantified, the derived heat balance equation offers a means to calculate associated heat transfer. Overall, these modifications not only facilitate the modeling of mass transfer processes but also contribute to a more comprehensive understanding of mass and heat exchange in chemical engineering applications.
@article{a6606f40-fde1-4b64-ace8-64c42e995edb,
title={Use of the colburn drew equations to mod},
author={D. C. Erickson and A. Gomezplata},
year={2026},
language={en}
}TY - JOUR TI - Use of the colburn drew equations to mod AU - D. C. Erickson AU - A. Gomezplata PY - 2026 LA - en ER -
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