Local Strain Hardening of Metal Components by Means of Martensite Generation

Research output: Chapter in book/report/conference proceedingConference contributionResearchpeer review

Authors

  • Bernd Arno Behrens
  • Sven Hübner
  • Anas Bouguecha
  • Julian Knigge
  • Kathrin Voges-Schwieger
  • Katrin Weilandt
View graph of relations

Details

Original languageEnglish
Title of host publicationCreation of High-Strength Structures and Joints by Setting up Local Material Properties (II)
EditorsHeinz Palkowski, Kai-Michael Rudolph
Pages1-33
Number of pages33
Publication statusPublished - 19 Oct 2010

Publication series

NameAdvanced Materials Research
Volume137
ISSN (Print)1022-6680

Abstract

The emphasis, in respect of content regarding the here presented project, lies within the production of localized reinforcements, by means of transformation-induced α×-martensite formation in solid and sheet metal components. During the forming process of metastable austenitic steels, high-strength martensite areas, next to ductile austenitic regions, are to be adjusted to enable the production of load-adapted components. To this end, extensive basic analyses are also necessary in order to determine the description of the mechanical behavior of α×-martensite structures, as well as to determine the extension of the numerical simulation as regards the structural change. The results achieved within the area of steel forming include the development of a temperable deep-drawing die (T = -35 °C until T = 100 °C) that carefully facilitates structural conversion at a constant forming-degree. Moreover the crash performance, based on transformation-induced martensite structures is improved. So-called Forming Curves (FCs) were developed as a new approach towards the material characterization of structured steel. In bulge forming components, comprised of chrome and nickel steels as well as manganous hard steel, martensite was specifically generated under the use of differing forming parameters. The tool design was aided by Finite Element Analysis (FEA). Moreover, fundamental simulations were carried out in order to calculate the structural change. The modification and extension of a semi-analytical model of the material followed so that the martensite content could be calculated in the previously examined sheet components, as in the massive forming.

Keywords

    Martensite, Material characterization, Simulation

ASJC Scopus subject areas

Cite this

Local Strain Hardening of Metal Components by Means of Martensite Generation. / Behrens, Bernd Arno; Hübner, Sven; Bouguecha, Anas et al.
Creation of High-Strength Structures and Joints by Setting up Local Material Properties (II). ed. / Heinz Palkowski; Kai-Michael Rudolph. 2010. p. 1-33 (Advanced Materials Research; Vol. 137).

Research output: Chapter in book/report/conference proceedingConference contributionResearchpeer review

Behrens, BA, Hübner, S, Bouguecha, A, Knigge, J, Voges-Schwieger, K & Weilandt, K 2010, Local Strain Hardening of Metal Components by Means of Martensite Generation. in H Palkowski & K-M Rudolph (eds), Creation of High-Strength Structures and Joints by Setting up Local Material Properties (II). Advanced Materials Research, vol. 137, pp. 1-33. https://doi.org/10.4028/www.scientific.net/AMR.137.1
Behrens, B. A., Hübner, S., Bouguecha, A., Knigge, J., Voges-Schwieger, K., & Weilandt, K. (2010). Local Strain Hardening of Metal Components by Means of Martensite Generation. In H. Palkowski, & K.-M. Rudolph (Eds.), Creation of High-Strength Structures and Joints by Setting up Local Material Properties (II) (pp. 1-33). (Advanced Materials Research; Vol. 137). https://doi.org/10.4028/www.scientific.net/AMR.137.1
Behrens BA, Hübner S, Bouguecha A, Knigge J, Voges-Schwieger K, Weilandt K. Local Strain Hardening of Metal Components by Means of Martensite Generation. In Palkowski H, Rudolph KM, editors, Creation of High-Strength Structures and Joints by Setting up Local Material Properties (II). 2010. p. 1-33. (Advanced Materials Research). doi: 10.4028/www.scientific.net/AMR.137.1
Behrens, Bernd Arno ; Hübner, Sven ; Bouguecha, Anas et al. / Local Strain Hardening of Metal Components by Means of Martensite Generation. Creation of High-Strength Structures and Joints by Setting up Local Material Properties (II). editor / Heinz Palkowski ; Kai-Michael Rudolph. 2010. pp. 1-33 (Advanced Materials Research).
Download
@inproceedings{b73f568764c84f56b2abe772b40c2274,
title = "Local Strain Hardening of Metal Components by Means of Martensite Generation",
abstract = "The emphasis, in respect of content regarding the here presented project, lies within the production of localized reinforcements, by means of transformation-induced α×-martensite formation in solid and sheet metal components. During the forming process of metastable austenitic steels, high-strength martensite areas, next to ductile austenitic regions, are to be adjusted to enable the production of load-adapted components. To this end, extensive basic analyses are also necessary in order to determine the description of the mechanical behavior of α×-martensite structures, as well as to determine the extension of the numerical simulation as regards the structural change. The results achieved within the area of steel forming include the development of a temperable deep-drawing die (T = -35 °C until T = 100 °C) that carefully facilitates structural conversion at a constant forming-degree. Moreover the crash performance, based on transformation-induced martensite structures is improved. So-called Forming Curves (FCs) were developed as a new approach towards the material characterization of structured steel. In bulge forming components, comprised of chrome and nickel steels as well as manganous hard steel, martensite was specifically generated under the use of differing forming parameters. The tool design was aided by Finite Element Analysis (FEA). Moreover, fundamental simulations were carried out in order to calculate the structural change. The modification and extension of a semi-analytical model of the material followed so that the martensite content could be calculated in the previously examined sheet components, as in the massive forming.",
keywords = "Martensite, Material characterization, Simulation",
author = "Behrens, {Bernd Arno} and Sven H{\"u}bner and Anas Bouguecha and Julian Knigge and Kathrin Voges-Schwieger and Katrin Weilandt",
year = "2010",
month = oct,
day = "19",
doi = "10.4028/www.scientific.net/AMR.137.1",
language = "English",
isbn = "9780878492343",
series = "Advanced Materials Research",
pages = "1--33",
editor = "Heinz Palkowski and Kai-Michael Rudolph",
booktitle = "Creation of High-Strength Structures and Joints by Setting up Local Material Properties (II)",

}

Download

TY - GEN

T1 - Local Strain Hardening of Metal Components by Means of Martensite Generation

AU - Behrens, Bernd Arno

AU - Hübner, Sven

AU - Bouguecha, Anas

AU - Knigge, Julian

AU - Voges-Schwieger, Kathrin

AU - Weilandt, Katrin

PY - 2010/10/19

Y1 - 2010/10/19

N2 - The emphasis, in respect of content regarding the here presented project, lies within the production of localized reinforcements, by means of transformation-induced α×-martensite formation in solid and sheet metal components. During the forming process of metastable austenitic steels, high-strength martensite areas, next to ductile austenitic regions, are to be adjusted to enable the production of load-adapted components. To this end, extensive basic analyses are also necessary in order to determine the description of the mechanical behavior of α×-martensite structures, as well as to determine the extension of the numerical simulation as regards the structural change. The results achieved within the area of steel forming include the development of a temperable deep-drawing die (T = -35 °C until T = 100 °C) that carefully facilitates structural conversion at a constant forming-degree. Moreover the crash performance, based on transformation-induced martensite structures is improved. So-called Forming Curves (FCs) were developed as a new approach towards the material characterization of structured steel. In bulge forming components, comprised of chrome and nickel steels as well as manganous hard steel, martensite was specifically generated under the use of differing forming parameters. The tool design was aided by Finite Element Analysis (FEA). Moreover, fundamental simulations were carried out in order to calculate the structural change. The modification and extension of a semi-analytical model of the material followed so that the martensite content could be calculated in the previously examined sheet components, as in the massive forming.

AB - The emphasis, in respect of content regarding the here presented project, lies within the production of localized reinforcements, by means of transformation-induced α×-martensite formation in solid and sheet metal components. During the forming process of metastable austenitic steels, high-strength martensite areas, next to ductile austenitic regions, are to be adjusted to enable the production of load-adapted components. To this end, extensive basic analyses are also necessary in order to determine the description of the mechanical behavior of α×-martensite structures, as well as to determine the extension of the numerical simulation as regards the structural change. The results achieved within the area of steel forming include the development of a temperable deep-drawing die (T = -35 °C until T = 100 °C) that carefully facilitates structural conversion at a constant forming-degree. Moreover the crash performance, based on transformation-induced martensite structures is improved. So-called Forming Curves (FCs) were developed as a new approach towards the material characterization of structured steel. In bulge forming components, comprised of chrome and nickel steels as well as manganous hard steel, martensite was specifically generated under the use of differing forming parameters. The tool design was aided by Finite Element Analysis (FEA). Moreover, fundamental simulations were carried out in order to calculate the structural change. The modification and extension of a semi-analytical model of the material followed so that the martensite content could be calculated in the previously examined sheet components, as in the massive forming.

KW - Martensite

KW - Material characterization

KW - Simulation

UR - http://www.scopus.com/inward/record.url?scp=78650763879&partnerID=8YFLogxK

U2 - 10.4028/www.scientific.net/AMR.137.1

DO - 10.4028/www.scientific.net/AMR.137.1

M3 - Conference contribution

AN - SCOPUS:78650763879

SN - 9780878492343

T3 - Advanced Materials Research

SP - 1

EP - 33

BT - Creation of High-Strength Structures and Joints by Setting up Local Material Properties (II)

A2 - Palkowski, Heinz

A2 - Rudolph, Kai-Michael

ER -