Advancements in Mercury Intrusion Porosimetry for Pore Structure Analysis of Cement-based Materials

MIP remains indispensable for pore structure analysis due to its precision and broad measurement range. However, its integration with XCT represents a breakthrough, offering a holistic view of cement-based materials' porosity. In the determination of pore characteristics of porous materials, mercury pressure method can measure pore size up to 5 orders of magnitude, with a minimum of about 2 nm and a maximum pore size of hundreds of microns. Combining MIP and XCT overcomes the individual limitations of each technique, providing an unprecedented, multi-scale, and 3D view of the pore structure. This leads to significantly more accurate microstructure-property relationships, enabling better durability prediction, material design, and fundamental understanding of cement-based materials. into exploring pore distribution patterns within cement-based porous matrices. Future research should focus on minimizing pressure-induced artifacts and refining combined methodologies to further advance microstructure characterization and application-oriented material optimization.

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Publication Details

Journal
Journal of Engineering Research and Reports
Published
2025-06-24
DOI
https://doi.org/10.9734/jerr/2025/v27i61551
Primary Topic
Advanced ceramic materials synthesis
Type
article
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article

Advancements in Mercury Intrusion Porosimetry for Pore Structure Analysis of Cement-based Materials

Z. Zhang
Journal of Engineering Research and Reports
Advanced ceramic materials synthesis
article

Advancements in Mercury Intrusion Porosimetry for Pore Structure Analysis of Cement-based Materials

Z. Zhang
article en

Abstract

MIP remains indispensable for pore structure analysis due to its precision and broad measurement range. However, its integration with XCT represents a breakthrough, offering a holistic view of cement-based materials' porosity. In the determination of pore characteristics of porous materials, mercury pressure method can measure pore size up to 5 orders of magnitude, with a minimum of about 2 nm and a maximum pore size of hundreds of microns. Combining MIP and XCT overcomes the individual limitations of each technique, providing an unprecedented, multi-scale, and 3D view of the pore structure. This leads to significantly more accurate microstructure-property relationships, enabling better durability prediction, material design, and fundamental understanding of cement-based materials. into exploring pore distribution patterns within cement-based porous matrices. Future research should focus on minimizing pressure-induced artifacts and refining combined methodologies to further advance microstructure characterization and application-oriented material optimization.

Journal of Engineering Research and ReportsVol. 27(6)
North China University of Water Resources and Electric Power (CN)
Openalex Percentile: Top 88%
Advanced ceramic materials synthesis
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