Use of the biomass. The aptitude of glass woody residuals to form agglomerates with cement
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Abstract
In Cuba, silvicultural management generates large volumes of wood canopy residues that are not industrially utilized, representing an environmental and economic problem. This study evaluated the suitability of Pinus caribaea and Eucalyptus saligna residues for the production of cement-based agglomerates, with the aim of offering a sustainable alternative. Crown residues of both species were used, crushed and processed to obtain 0.5 to 2.0 mm chips. Using the Sanderman test, the maximum hydration temperature was measured in an adiabatic system, using a wood-cement-water ratio of 1:10:5. The results showed that P. caribaea achieved a suitability coefficient of 82.9% (classified as "Very Good"), while E. saligna obtained 77% ("Good"). Both materials demonstrated compatibility with cement without the need for debarking or additives. It was concluded that these residues are suitable for the production of agglomerates, offering a viable solution for their use in housing construction.
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References
Chen, T. Y. (1990). The suitability of structural particleboard made from fast-growing tree species. Holz Als Roh - und Merkstoff, 48(12). https://www.cabidigitallibrary.org/doi/full/10.5555/19910648632
Irel, M. (1993). Agriculture residues for cement-bonded composites. Proceedings of a workshop on inorganic-bonded wood and fiber composite materials, 3, 31-58. https://cir.nii.ac.jp/crid/1571698599510560768
LingFei, M., Kuroki, Y., Eusebio, D. A., Nagadomi, W., Kawai, S., & Sasaki, H. (1996). Manufacture of bamboo-cement composites I. Hydration characteristics of bamboo-cement mixtures. https://www.cabidigitallibrary.org/doi/full/10.5555/19960603705
Manzanares, K., Velazquez, D., Valdés, J., Martinez, O., & Morales, F. (1991). Aptitud del material de raleo de tres especies forestales para formar aglomerados con cemento. Revista Forestal Baracoa, 21(1), 59-73.
Moslemi, A. A., Garcia, J. F., & Hofstrand, A. D. (1983). Effect of various treatments and additives on wood-Portland cement-water systems. Wood and Fiber science, 15, 164-176.
Osinki, B. A., & Potter, A. (1997). Early Strength Prediction in Heat – Accelerated processing of cement—Wood Composite. Spokaine, 14-19.
Puig, A., Vidal, A. M., Godínez, E., Figueredo, M. A., Ramos, R., Rodríguez, J., & Quert, R. (1993). Triturador TC-1.6F para el procesamiento integral de la biomasa forestal.
Sanderman, W. R., & Kholer, R. (1964). Studies of Mineral bonded Wood materials. IV: A short test of the aptitude of wood for cement bonded materials. Holzforsechung, 18(12), 53-59.
Velázquez, D. (1990). Equipo determinador de compatibilidad. IX Forum de Ciencia y Técnica.
Vidal, A. M., Quert-Álvarez, R., & Avilés-Martínez, G. F. (2019). Pronóstico de biomasa de copa aprovechable de Pinus caribaea por metro cúbico de madera de fuste. Revista Forestal Baracoa, 38(3), 21-28.
Vidal, A. M., Toirac-Argüelles, W., & Rodríguez-Rodríguez, J. (2020). Pronóstico de biomasa de copa aprovechable de Pinus tropicalis por metro cúbico de madera de fuste. Revista Forestal Baracoa, 39(1), 33-38.
Vilela, E., & Duasquier, H. (1968). Determinación del Coeficiente de Aptitud de un grupo de maderas para su posible aplicación en la fabricación de tableros de pajilla de madera—Cemento. Revista Forestal Venezolana, 11(16), 75-84.
Yossifov, N., Khristova, P., & Gabi, S. (1997). Agri-Cement Panels from Sunflower Stalks. Spokaine, 33-37.
Zouldian, A. A., Mongel, E., Sauvatand, N., & Fodrevelle, J. (1997). Effect of setting accelerators on the chsracteristcs of wood—Cement Particleboards. Spokaine, 26-32.