Efficient Bio-Based Insulation Panels Produced from Eucalyptus Bark Waste

Traditional thermal insulation panels consume large amounts of energy during production and emits pollutants into the environment. To mitigate this impact, the development of bio-based materials is an attractive alternative. In this context, the characteristics of the Eucalyptus fiber bark (EGFB) make it a candidate for insulation applications. However, more knowledge about the manufacturing process and in-service performance is needed. The present study characterized the properties that determine the in-service behavior of the EGFB insulation panel. The assessment involved two different manufacturing processes. The results indicated that the hot plates and the saturated steam injection manufacturing system can produce panels with similar target and bulk density. The thermal conductivity fluctuated between 0.064 and 0.077 W/m·K, which indicated good insulation, and the values obtained for thermal diffusivity (0.10–0.37 m mm2/s) and water vapor permeability (0.032–0.055 m kg/GN s) are comparable with other commercially available panels. To guarantee a good in-service performance, the panels need to be treated with flame retardant and antifungal additive. The good performance of the panel is relevant because bio-based Eucalyptus bark panels generate less CO2 eq and require less energy consumption compared to traditional alternatives, contributing to the sustainability of the forestry and the construction industry.

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Publication Details

Journal
Forests
Published
2024-09-15
DOI
https://doi.org/10.3390/f15091628
Citations
3
Primary Topic
Natural Fiber Reinforced Composites
Type
article
Field-Weighted Citation Impact
0.51

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article

Efficient Bio-Based Insulation Panels Produced from Eucalyptus Bark Waste

César Segovia, Cecilia Fuentealba, Mauricio Pradena-Miquel, Andrés César
3 citations
Forests
Natural Fiber Reinforced Composites
0.51
article

Efficient Bio-Based Insulation Panels Produced from Eucalyptus Bark Waste

César Segovia, Cecilia Fuentealba, Mauricio Pradena-Miquel, Andrés César
article en
3 citations

Abstract

Traditional thermal insulation panels consume large amounts of energy during production and emits pollutants into the environment. To mitigate this impact, the development of bio-based materials is an attractive alternative. In this context, the characteristics of the Eucalyptus fiber bark (EGFB) make it a candidate for insulation applications. However, more knowledge about the manufacturing process and in-service performance is needed. The present study characterized the properties that determine the in-service behavior of the EGFB insulation panel. The assessment involved two different manufacturing processes. The results indicated that the hot plates and the saturated steam injection manufacturing system can produce panels with similar target and bulk density. The thermal conductivity fluctuated between 0.064 and 0.077 W/m·K, which indicated good insulation, and the values obtained for thermal diffusivity (0.10–0.37 m mm2/s) and water vapor permeability (0.032–0.055 m kg/GN s) are comparable with other commercially available panels. To guarantee a good in-service performance, the panels need to be treated with flame retardant and antifungal additive. The good performance of the panel is relevant because bio-based Eucalyptus bark panels generate less CO2 eq and require less energy consumption compared to traditional alternatives, contributing to the sustainability of the forestry and the construction industry.

ForestsVol. 15(9)
Pontificia Universidad Católica de Chile (CL), University of Concepción (CL), Universidade de São Paulo (BR), San Sebastián University (CL), Universidade Cidade de São Paulo (BR), Université de Lorraine (FR)
Agencia Nacional de Investigación y Desarrollo, Fondo de Fomento al Desarrollo Científico y Tecnológico
Openalex Percentile: Top 43%
Natural Fiber Reinforced Composites
0.51
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