C. Kontermann, A. Erbe, V. Knauthe, M. von Buelow, T.-U. Kern, M. Oechsner
{"title":"通过一种新颖的3d扫描系统对蠕变试样进行均匀伸长率测量","authors":"C. Kontermann, A. Erbe, V. Knauthe, M. von Buelow, T.-U. Kern, M. Oechsner","doi":"10.1080/09603409.2023.2261783","DOIUrl":null,"url":null,"abstract":"ABSTRACTThe ductility of a material represents a very important value for both the classification and application of high-temperature alloys in real components. Commonly, different values have been defined and can be used to characterise the ductility of the material. Within this work, a 3D-scanning system has been developed which allow a highly precise digital reconstruction of fractured creep specimens. The digital reconstruction is used to compare and refine conventions for determining one of the ductility candidate values, the uniform elongation, in a consistent, robust and objective way. By utilizing this system, a large amount of long-term creep specimens were re-evaluated including P92 samples with challenging, since macroscopically low ductility values. The results will be discussed in by providing uniform elongation trends and by the use of the Ductility Evaluation of Creep Specimens (DECS) diagram.KEYWORDS: Uniform elongation3D-Scannercreep ductility AcknowledgmentsThe underlying research project (FVV project no. 1371) was performed by the Institute of Materials Technology of the Technical University Darmstadt, by the Interactive Graphics Systems Group and by the Materials Testing Institute at the University of Stuttgart. The research project was funded by the AVIF (Research Association for the Iron and Metal Processing Industry eV, AVIF No. A314). The authors gratefully acknowledge the support received from the funding organisation, from the FVV eV and from all scientific and industry experts involved in this project.Disclosure statementNo potential conflict of interest was reported by the author(s).","PeriodicalId":49877,"journal":{"name":"Materials at High Temperatures","volume":"58 1","pages":"0"},"PeriodicalIF":1.0000,"publicationDate":"2023-10-09","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Uniform elongation measurements on creep specimens by a novel 3D-scanning system\",\"authors\":\"C. Kontermann, A. Erbe, V. Knauthe, M. von Buelow, T.-U. Kern, M. Oechsner\",\"doi\":\"10.1080/09603409.2023.2261783\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"ABSTRACTThe ductility of a material represents a very important value for both the classification and application of high-temperature alloys in real components. Commonly, different values have been defined and can be used to characterise the ductility of the material. Within this work, a 3D-scanning system has been developed which allow a highly precise digital reconstruction of fractured creep specimens. The digital reconstruction is used to compare and refine conventions for determining one of the ductility candidate values, the uniform elongation, in a consistent, robust and objective way. By utilizing this system, a large amount of long-term creep specimens were re-evaluated including P92 samples with challenging, since macroscopically low ductility values. The results will be discussed in by providing uniform elongation trends and by the use of the Ductility Evaluation of Creep Specimens (DECS) diagram.KEYWORDS: Uniform elongation3D-Scannercreep ductility AcknowledgmentsThe underlying research project (FVV project no. 1371) was performed by the Institute of Materials Technology of the Technical University Darmstadt, by the Interactive Graphics Systems Group and by the Materials Testing Institute at the University of Stuttgart. The research project was funded by the AVIF (Research Association for the Iron and Metal Processing Industry eV, AVIF No. A314). 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Uniform elongation measurements on creep specimens by a novel 3D-scanning system
ABSTRACTThe ductility of a material represents a very important value for both the classification and application of high-temperature alloys in real components. Commonly, different values have been defined and can be used to characterise the ductility of the material. Within this work, a 3D-scanning system has been developed which allow a highly precise digital reconstruction of fractured creep specimens. The digital reconstruction is used to compare and refine conventions for determining one of the ductility candidate values, the uniform elongation, in a consistent, robust and objective way. By utilizing this system, a large amount of long-term creep specimens were re-evaluated including P92 samples with challenging, since macroscopically low ductility values. The results will be discussed in by providing uniform elongation trends and by the use of the Ductility Evaluation of Creep Specimens (DECS) diagram.KEYWORDS: Uniform elongation3D-Scannercreep ductility AcknowledgmentsThe underlying research project (FVV project no. 1371) was performed by the Institute of Materials Technology of the Technical University Darmstadt, by the Interactive Graphics Systems Group and by the Materials Testing Institute at the University of Stuttgart. The research project was funded by the AVIF (Research Association for the Iron and Metal Processing Industry eV, AVIF No. A314). The authors gratefully acknowledge the support received from the funding organisation, from the FVV eV and from all scientific and industry experts involved in this project.Disclosure statementNo potential conflict of interest was reported by the author(s).
期刊介绍:
Materials at High Temperatures welcomes contributions relating to high temperature applications in the energy generation, aerospace, chemical and process industries. The effects of high temperatures and extreme environments on the corrosion and oxidation, fatigue, creep, strength and wear of metallic alloys, ceramics, intermetallics, and refractory and composite materials relative to these industries are covered.
Papers on the modelling of behaviour and life prediction are also welcome, provided these are validated by experimental data and explicitly linked to actual or potential applications. Contributions addressing the needs of designers and engineers (e.g. standards and codes of practice) relative to the areas of interest of this journal also fall within the scope. The term ''high temperatures'' refers to the subsequent temperatures of application and not, for example, to those of processing itself.
Materials at High Temperatures publishes regular thematic issues on topics of current interest. Proposals for issues are welcomed; please contact one of the Editors with details.