Captadores solares
; Di Pratula, Pablo Emmanuel
; Cardillo, Evangelina Cinthia
; Frechero, Marisa Alejandra 
Otros responsables
Fecha
06/2018
Editorial
Executive Business School
Revista
Avances en Ciencias e Ingeniería
Título del libro
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Institución organizadora
ISSN
eISSN
0718-8706
ISBN
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Español
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Resumen
En este trabajo se ha diseñado un material innovador que permite la transformación de la luz solar en energía calórica con alta eficiencia, consiguiendo además, cumplir un doble propósito: reaprovechar desechos industriales (parabrisas de automotores y cenizas) y contribuir al cuidado del medioambiente mediante el desarrollo de un nuevo método de generación de “energía verde”. Los nanocompositos constituidos por nanopartículas de Ag ancladas en una matriz vítrea, se sintetizaron utilizando una celda de estado sólido formada por electrolitos cristalinos y amorfos. Los materiales obtenidos se caracterizaron mediante técnicas de espectroscopia UV-Vis e Impedancia. El aumento en la permitividad da lugar a una mejora notable en el proceso de transporte de calor (nanopartícula-matriz) incrementando la funcionalidad del material nanocompuesto diseñado para la “cosecha de energía” (luz solar).
In this paper, it has been designed an innovative material that allows the transformation of sunlight into heat energy with high efficiency and it fulfills a dual purpose: to reuse industrial wastes (motor vehicles’ windshield and heat systems’ ashes) and to contribute to environment care by developing of a new method of "green energy" generation. The nanocomposites constituted by Ag nanoparticles anchored in a vitreous matrix, were synthesized using a solid state cell formed by crystalline and amorphous electrolytes. The materials were characterized by UV-Vis and impedance spectroscopy techniques. The increase observed in their permittivity results in a significant improvement in the heat transport process (nano-particle/glassy matrix) which provokes an improvement in the nano-composite material functionality for "energy harvesting" (sunlight).
In this paper, it has been designed an innovative material that allows the transformation of sunlight into heat energy with high efficiency and it fulfills a dual purpose: to reuse industrial wastes (motor vehicles’ windshield and heat systems’ ashes) and to contribute to environment care by developing of a new method of "green energy" generation. The nanocomposites constituted by Ag nanoparticles anchored in a vitreous matrix, were synthesized using a solid state cell formed by crystalline and amorphous electrolytes. The materials were characterized by UV-Vis and impedance spectroscopy techniques. The increase observed in their permittivity results in a significant improvement in the heat transport process (nano-particle/glassy matrix) which provokes an improvement in the nano-composite material functionality for "energy harvesting" (sunlight).
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