This approach overlooks a critical reality: uniform corrosion is often far less dangerous than localized corrosion, even when average corrosion rates appear low. Most catastrophic pipeline failures are driven by localized damage mechanisms that escape conventional corrosion indicators.

This article explains why localized corrosion represents a much higher integrity threat than uniform corrosion and how integrity management must adapt accordingly.

Many corrosion-related failures originate from mechanisms initiated during early field life but detected much later. This article explains why corrosion rates are frequently underestimated during early operation and how this underestimation compromises long-term pipeline integrity.

Industry experience shows that most recurring corrosion failures are not caused by unknown mechanisms, but by incorrectly identified ones. This article explains how internal corrosion mechanisms should be identified in pipelines and why this identification is fundamental to sound integrity decisions.

Industry experience shows many corrosion-related failures originate from mechanisms initiated during early field life but detected much later. This article explains why corrosion rates are frequently underestimated during early operation and how this underestimation compromises long-term pipeline integrity.

This article explains how gas condensation occurs in pipelines, why it leads to aggressive internal corrosion, and how integrity management programs often fail to anticipate this mechanism.

One of the most fundamental principles of pipeline corrosion is also one of the most misunderstood: pipelines do not corrode without free water.

This article explains why free water is the true enabler of pipeline corrosion and why managing water is central to pipeline integrity management.

Correct identification of corrosion mechanisms is essential. Treating CO₂ corrosion as MIC, or erosion-corrosion as pure corrosion, leads to ineffective mitigation.