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Process metallurgists (like me) use math, physics and chemistry to describe what happens during metal manufacturing. Other researchers use math, statistics and computer science to study and optimize manufacturing at a larger scale.
Researchers at Carnegie Mellon University’s (CMU) Center for Iron and Steelmaking Research are bringing computer-vision and machine-learning techniques to the study of inclusions, hoping to increase the efficiency of inclusion analysis and gain new insights.
High-performance metals are those metals that are exposed to some combination of high stresses, high and/or fluctuating temperatures, and corrosive conditions where high reliability is essential.
The
most popular definition of clean steel is in reference to steel with low
inclusion content. This article will review some of the techniques that are
used to produce steel with low inclusion content and how these practices are
used in steelmaking.
Steel cleanliness has become a topic of great interest to the heat treater given the reality that steel is a global-sourced commodity. Often, the type and distribution of inclusions have a significant influence on mechanical properties. It’s time to review this subject so that we can continue to better understand the steel we process. Let’s learn more.