Quantification of forming-induced damage in case-hardening steel AISI 5115 by advanced SEM methods

Abstract As climate change and resource scarcity intensify, the need for energy efficiency, emissions reduction, and resource conservation grows. Forming technology offers significant potential for light weighting, cost and resource efficiency. However, current component design often neglects forming-related damage, such as voids, focusing primarily on mechanical properties and safety factors. Integrating knowledge of these voids into the design process can improve efficiency and increase light weighting potential. Advanced scanning electron methods, such as electron contrast channeling imaging, evaluated forming-induced damage and correlated it with fatigue properties. Crack initiation occurred mainly near manganese sulfide inclusions or near-surface voids, influencing crack propagation. Analyzing void distribution using advanced secondary electron methods enabled the development of a 3D volume model.

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Publication Details

Journal
Practical Metallography
Published
2024-08-01
DOI
https://doi.org/10.1515/pm-2024-0061
Citations
5
Primary Topic
Metal Forming Simulation Techniques
Type
article
Field-Weighted Citation Impact
1.06
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article

Quantification of forming-induced damage in case-hardening steel AISI 5115 by advanced SEM methods

Kai Donnerbauer, Marina Macias Barrientos, Lars A. Lingnau, Johannes Otto et al.
5 citations
Practical Metallography
Metal Forming Simulation Techniques
1.06
article

Quantification of forming-induced damage in case-hardening steel AISI 5115 by advanced SEM methods

Kai Donnerbauer, Marina Macias Barrientos, Lars A. Lingnau, Johannes Otto, Frank Walther, Johannes Heermant
article en
5 citations

Abstract

Abstract As climate change and resource scarcity intensify, the need for energy efficiency, emissions reduction, and resource conservation grows. Forming technology offers significant potential for light weighting, cost and resource efficiency. However, current component design often neglects forming-related damage, such as voids, focusing primarily on mechanical properties and safety factors. Integrating knowledge of these voids into the design process can improve efficiency and increase light weighting potential. Advanced scanning electron methods, such as electron contrast channeling imaging, evaluated forming-induced damage and correlated it with fatigue properties. Crack initiation occurred mainly near manganese sulfide inclusions or near-surface voids, influencing crack propagation. Analyzing void distribution using advanced secondary electron methods enabled the development of a 3D volume model.

Practical MetallographyVol. 61(9-10)
TU Dortmund University (DE)
Openalex Percentile: Top 27%
Metal Forming Simulation Techniques
1.06
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