4.6 Article

Modelling and operation of industrial vibrocooling units

Journal

CHEMICAL ENGINEERING RESEARCH & DESIGN
Volume 194, Issue -, Pages 722-730

Publisher

ELSEVIER
DOI: 10.1016/j.cherd.2023.05.017

Keywords

Product design; Particle technology; Industrial process; Modelling; Process operation

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Product quality is crucial for maintaining customer trust. This study focuses on the cooling stage of powder products, specifically fertilizers, during storage to prevent damage. A first principles model is developed to evaluate the operation of industrial fluidized vibrating cooling units. The model considers heat transfer efficiency and losses to accurately predict cooling cycle needs and estimate operational costs.
Product quality is paramount for companies to maintain the trust from their customers. Powder products and in particular fertilizers can suffer damage during storage if the temperature and moisture are not appropriate. Most of the work has focused on drying, but the last stage of cooling is responsible for avoiding product out of specification. A first principles model has been developed for industrial fluidized vibrating cooling units following a multiscale approach, from the particle to the entire unit, to evaluate their operation. The unit consists of two sections using atmospheric and cool air, respectively. A refrigeration cycle is also modelled to compute the needs to cool the air. The unit's model only includes two adjustable parameters, the heat transfer efficiency from the particle to the air as well as for the losses from the unit to atmosphere. The model has been validated using industrial data, resulting in heat flow efficiency from the particle equal to 0.30 and the flow of losses of 1.17 kW/K. The model can reproduce the industrial data within reasonable error and allows predicting the cooling cycle needs and estimating the cost of its operation as a function of the weather. The location of the facility results in the fact that during June-August the atmospheric air cannot cool the product below the critical temperature and the refrigeration cycle needs to operate. (c) 2023 The Author(s). Published by Elsevier Ltd on behalf of Institution of Chemical Engineers. This is an open access article under the CC BY-NC-ND license

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