Analysis of the drying kinetics of sargassum using direct solar dryer and solar energy direct

Authors

  • Raymundo López Callejas
  • Mabel Vaca Mier
  • Arturo Lizardi Ramos

DOI:

https://doi.org/10.34117/bjdv10n6-090

Keywords:

sargassum drying, numeric model, direct solar dryer, direct solar energy, anderson and pabis model

Abstract

This paper presents the analysis of the kinetics of sargassum drying using a direct solar dryer and the direct energy from the sun. Four mathematical models were applied: Newton, Page, Henderson and Pabis; and Midilli et al. The seaweed was brought from the coast of Cancun, Q. R, Mexico. With the direct solar dryer, a total of 6 hours were required to dry it, the final humidity ratio was 0.013. In the case of solar energy without dryer, i. e., in open air, 12 hours were required in two non-consecutive periods, and the final humidity ratio was 0.025. The solar radiation values, temperatures and mass variation were obtained as a function of time. The kinetic model that best simulated the drying process was that of Anderson and Pabis, obtained after the statistical analysis was performed, the activation energy was also obtained.

References

AKPINAR E Bicer Y and Yildiz C. Thin layer drying of red pepper J. Food Eng. 59, 2003.

HENDERSON S and Pabis S. Grain drying theory. J Agricult Eng Res 6, 0961.

JAYAS D, Cenkowski S, Pabis S and Muir W. Review of thin layer drying and wetting equations. Drying Technol 9, 1991.

KAYMAK-ERTEKIN, F. Drying and rehydrating kinetics of green and red peppers. J Food Sci 67, 2002.

KEDINNA Dias de Sousa, Guilherme Gonçalves Costa, Frank Freire Capuchinho, Karina Rabelo Fonseca, Ivano Alessandro Devilla. Comparison of mathematical models to describe the drying kinetics of minimally processed ponkan tangerine. Brazilian Journal of Development, 2021.

LAFFOLEY D d’A, Roe HSJ, Angel MV, Ardron J et al. The Protection and Management of the Sargassum Sea: The Golden Floating Rainforest of the Atlantic Ocean: St. George’s, Bermuda, 2011.

LÓPEZ R, de Ita A and Vaca M. Drying of prickly pear cactus cladodes (Opuntia ficus indica) in a forced convection tunnel. Energy Conv Manag 50, 2009.

LÓPEZ-SOSA LB, Alvarado-Flores JJ, Corral-Huacuz JC. A Prospective Study of the Exploitation of Pelagic Sargassum spp. as a Solid Biofuel Energy Source. Appl. Sci. 10, 2020.

MIDILLI A, Kucuk H and Yapar Z. A new model for single layer drying. Drying Tech 20, 2002.

LAÍS MontenegroTeixeira, Lucas dos Santos Sousa, Fernando Fernandes Vieira, Marcello Maia de Almeida, Ketyla Karla Rodrigues do Nascimento, Otaciana Pereira Leite Neta. Evaluation of the potential of alga Sargassum sp as a textile dye adsorvent presents in effluents of the dying process. Brazilian Journal of Development, 2021.

PAGE G. Factor influencing the maximum rates of airdrying shelled corn in thin layer. Master Thesis, Purdue University, 1949.

SALAZAR CBA, Zapien CS, Hernández ZG and Rivera AJL. Investigation of the performance of asphalt binder modified by sargassum. Construct Build Mat 217, 2021.

SMETACEKV and Zingone A. Green and golden seaweed tides on the rise. Nature 504, 2013.

XIANGLU Z, Zhihang Z, Da-Wen LM and Brijesh K. Applications of ultrasound to enhance fluidized bed drying of Ascophyllum Nodosum: Drying kinetics and product quality assessment. Ultrasonics – Sonochemistry. 70, 2021.

YALDIZ, O., Ertekin, C., Uzun, H. I. Mathematical modeling of thin layer solar drying of sultana grapes. Energy. 26, 2001.

Published

2024-06-28

How to Cite

Callejas, R. L., Mier, M. V., & Ramos, A. L. (2024). Analysis of the drying kinetics of sargassum using direct solar dryer and solar energy direct. Brazilian Journal of Development, 10(6), e70951. https://doi.org/10.34117/bjdv10n6-090

Issue

Section

Original Papers