State of the art on the calculation of anodic resistance for cathodic protection of steel in concrete

For the design of cathodic protection ( I mpressed C urrent C athodic P rotection ( ICCP ) or S acrificial A node C athodic P rotection ( SACP )) of steel in concrete using drilled-in discrete anodes, the rectifier output voltage and current are selected (for ICCP) based on a multi-criteria analysis (steel surface, concrete performances, results of material and corrosion diagnostics, oxygen availability, exposure to pollutants, expected service life, etc.). However, the rules for calculating anodic resistance (which makes a major contribution to overall circuit resistance) are not universally accepted in the profession, since the calculation rules used for cathodic protection of buried or immersed metal structures, which could be used by analogy, assume that the electrolyte is infinite, which cannot be the case in concrete. As a result, some designers are now skipping this fundamental step. Cumulative polarization measurements over the commissioning period have been carried out for several years on different projects, with different anode systems, and the results demonstrate consistency in the shape of the curves obtained and confirm the difficulty of assessing the contribution of the various parameters to be considered to enable the drafting of a robust and realistic limit state design hypothesis note. The final section concludes with the value of pilot testing in securing the design hypothesis.

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Publication Details

Journal
MATEC Web of Conferences
Published
2025-01-01
DOI
https://doi.org/10.1051/matecconf/202540902006
Primary Topic
Concrete Corrosion and Durability
Type
article
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article

State of the art on the calculation of anodic resistance for cathodic protection of steel in concrete

Olivier Lesieutre, Xavier Hallopeau
MATEC Web of Conferences
Concrete Corrosion and Durability
article

State of the art on the calculation of anodic resistance for cathodic protection of steel in concrete

Olivier Lesieutre, Xavier Hallopeau
article en

Abstract

For the design of cathodic protection ( I mpressed C urrent C athodic P rotection ( ICCP ) or S acrificial A node C athodic P rotection ( SACP )) of steel in concrete using drilled-in discrete anodes, the rectifier output voltage and current are selected (for ICCP) based on a multi-criteria analysis (steel surface, concrete performances, results of material and corrosion diagnostics, oxygen availability, exposure to pollutants, expected service life, etc.). However, the rules for calculating anodic resistance (which makes a major contribution to overall circuit resistance) are not universally accepted in the profession, since the calculation rules used for cathodic protection of buried or immersed metal structures, which could be used by analogy, assume that the electrolyte is infinite, which cannot be the case in concrete. As a result, some designers are now skipping this fundamental step. Cumulative polarization measurements over the commissioning period have been carried out for several years on different projects, with different anode systems, and the results demonstrate consistency in the shape of the curves obtained and confirm the difficulty of assessing the contribution of the various parameters to be considered to enable the drafting of a robust and realistic limit state design hypothesis note. The final section concludes with the value of pilot testing in securing the design hypothesis.

MATEC Web of ConferencesVol. 409
Openalex Percentile: Top 86%
Concrete Corrosion and Durability
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