journal article·2023-11

Porous ceramics derived from steel slag/coal gangue mixtures using cigarette butts as the pore‐forming agent

Wenjie Liu, Yang Wang, Jingtao Li, Baorang Li

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Abstract

Abstract Fabrication of ceramic materials with interconnected pores is necessary to improve thermal energy storage efficiency in high‐temperature infiltration technology. In the present study, industrial wastes such as coal gangue, steel slag, etc., were selected as the raw materials to prepare ceramics with interconnected pores. By adopting 50% cigarette butts as the pore‐forming agent, steel slag–coal gangue mixtures with a mass ratio of steel slag to coal gangue of 1:9 were sintered at 1100°C, and ceramics with interconnected elongated pores were prepared successfully. The highest apparent porosity and lowest volume density of the as‐prepared ceramics were ca. 73% and .74 g/cm 3 , respectively. Further measurements of the thermophysical properties indicated that no obvious mass loss was observed in the temperature range from ambient temperature to 800°C. The maximum values of specific heat and thermal conductivity were 1.38 J/(g K) and 1.661 W/(m K), respectively, and meanwhile the minimum compressive strength could exceed 3.5 MPa. These research results implied that the as‐prepared steel slag–coal gangue ceramics can provide long‐term service and offer excellent thermal stability over a wide temperature range. Therefore, they should have potential applications in high‐temperature infiltration technology.
Source: crossref · Quality: baseline

Research context

OpenAlex topics: Phase Change Materials Research · Heat and Mass Transfer in Porous Media · Recycling and utilization of industrial and municipal waste in materials production

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Affiliations

North China Electric Power University Beijing China

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