Design of a Chemical-Reaction Ceramic Paste, from Electric Arc Furnace Steel Slag and Potassium Hydrophosphate, for Applications in Monolithic Objects

The research focuses on the development of chemically bonded phosphate ceramics using potassium hydrophosphate and steel slag (EAF) as raw materials. The objective is to scale up the laboratory results to design a ceramic paste suitable for architectural monolithic products, promoting the recycling of EAF steel slag. The methodology includes field visits, grinding and sieving of raw materials, and the fabrication of specimens following ASTM standards. The laboratory results from existing studies on multiphase phosphate cements from steel slags indicate that exothermic reactions and the increase in reactants can affect process scaling. Furthermore, shaping methods such as casting and pressing are evaluated, where pressing proves to be the most suitable for this type of phosphate cement as it increases the material’s mechanical properties (compressive strength), reduces porosity, and generates a greater utilization of the EAF steel slag residue. Taking into account Colombian technical standards regarding the minimum compressive strength that a monolithic architectural object must withstand for structural and non-structural use, the results obtained in this research allow us to conclude that this material can indeed be used for architectural purposes.

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Publication Details

Journal
Ceramics
Published
2026-03-24
DOI
https://doi.org/10.3390/ceramics9040036
Primary Topic
Magnesium Oxide Properties and Applications
Type
article
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article

Design of a Chemical-Reaction Ceramic Paste, from Electric Arc Furnace Steel Slag and Potassium Hydrophosphate, for Applications in Monolithic Objects

Ceramics
Magnesium Oxide Properties and Applications
article

Design of a Chemical-Reaction Ceramic Paste, from Electric Arc Furnace Steel Slag and Potassium Hydrophosphate, for Applications in Monolithic Objects

article en

Abstract

The research focuses on the development of chemically bonded phosphate ceramics using potassium hydrophosphate and steel slag (EAF) as raw materials. The objective is to scale up the laboratory results to design a ceramic paste suitable for architectural monolithic products, promoting the recycling of EAF steel slag. The methodology includes field visits, grinding and sieving of raw materials, and the fabrication of specimens following ASTM standards. The laboratory results from existing studies on multiphase phosphate cements from steel slags indicate that exothermic reactions and the increase in reactants can affect process scaling. Furthermore, shaping methods such as casting and pressing are evaluated, where pressing proves to be the most suitable for this type of phosphate cement as it increases the material’s mechanical properties (compressive strength), reduces porosity, and generates a greater utilization of the EAF steel slag residue. Taking into account Colombian technical standards regarding the minimum compressive strength that a monolithic architectural object must withstand for structural and non-structural use, the results obtained in this research allow us to conclude that this material can indeed be used for architectural purposes.

CeramicsVol. 9(4)
Universidad Industrial de Santander (CO), Pedagogical and Technological University of Colombia (CO)
Openalex Percentile: Top 11%
Magnesium Oxide Properties and Applications
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