Improvements in the thermal behavior in the manufacture of the H10 block using coffee husks as an alternative industrial additive
Artículo de revista
2020-09-30
Journal of Physics: Conference Series
Reino Unido
Industrial organic waste reuse in product manufacturing processes is a strategy that
strengthens the circular economy. Thanks to materials science, the coffee husk is considered a
sustainable alternative that promotes industrial processes optimization in the ceramic industry
and contributes to the energy efficiency of buildings. This paper summarizes the behavior of
H10 blocks on a laboratory scale in 2 mixtures of clay and coffee husk fired in 3 different
temperatures: 900 °C, 1000 °C, and 1100 °C, at the “Centro de Investigación en Materiales
Cerámicos, Universidad Francisco de Paula Santander”, Colombia; and evaluates the
relationship of physical and mechanical properties with thermal behavior by heat transfer and
heat fluxes, simulated in the analysis system software through the finite element method. The
results support the improvement of thermal insulation capacity. Due to this, coffee husk
combustion generates internal air chambers that increase the porosity of the product. In spite of,
physical and mechanical properties contrast thermal benefits with increasing water absorption
percentages and thus decreasing the compressive strength of samples. In conclusion, new
materials development is a technological advance that expands possibilities to create new
solutions for buildings and even improves standardized designs in the ceramic industry.
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Improvements in the thermal behavior in the manufacture of the H10 block using coffee husks as an alternative industrial additive.pdf
Título: Improvements in the thermal behavior in the manufacture of the H10 block using coffee husks as an alternative industrial additive.pdf
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Título: Improvements in the thermal behavior in the manufacture of the H10 block using coffee husks as an alternative industrial additive.pdf
Tamaño: 1.226Mb
PDFLEER EN FLIP