Obiekt

Alternative title:

Dynamiczne zachowanie próbek ze stali 316L wytworzonych za pomocą metody SLM – właściwości mechaniczne i zmiany mikrostruktury ; Dynamiczne zachowanie próbek ze stali 316L wytworzonych za pomocą metody SLM – właściwości mechaniczne i zmiany mikrostruktury

Contributor:

Judyta SIENKIEWICZ, Jacek JANISZEWSKI, Janusz KLUCZYŃSKI ; Judyta SIENKIEWICZ, Jacek JANISZEWSKI, Janusz KLUCZYŃSKI

Abstract:

316L steel specimens with three different shear zones made by SLM (Selective Laser Melting) were subjected to dynamic tests using the Split Hopkinson Pressure Bar method. The effect of high-speed deformation on changes in microstructure was analyzed. In addition, the stress-strain relationship was determined from the SHPB results. To visualize the deformation process of the specimens during the tests, a camera with a high frame rate was used. It was shown that as the plastic deformation increases, the hardness of the material increases. Microstructural analysis of dynamically loaded areas revealed numerous defects. Twinning was found to be the main deformation mechanism. Large plastic deformation and many other microstructural changes such as shear bands, cracks and martensite nucleation were also observed.
; 316L steel specimens with three different shear zones made by SLM (Selective Laser Melting) were subjected to dynamic tests using the Split Hopkinson Pressure Bar method. The effect of high-speed deformation on changes in microstructure was analyzed. In addition, the stress-strain relationship was determined from the SHPB results. To visualize the deformation process of the specimens during the tests, a camera with a high frame rate was used. It was shown that as the plastic deformation increases, the hardness of the material increases. Microstructural analysis of dynamically loaded areas revealed numerous defects. Twinning was found to be the main deformation mechanism. Large plastic deformation and many other microstructural changes such as shear bands, cracks and martensite nucleation were also observed.

Place of publishing:

Warszawa
; Warszawa

Publisher:

Wojskowa Akademia Techniczna ; Wojskowa Akademia Techniczna

Date created:

2010 r.0

Date submitted:

2022-07-07 ; 2022-07-07

Date accepted:

2022-08-29 ; 2022-08-29

Date issued:

2023-06-30 ; 2023-06-30

Extent:

B5 ; B5

Identifier:

oai:ribes-88.man.poznan.pl:2673

Call number:

doi:10.5604/01.3001.0053.6671 ; doi:10.5604/01.3001.0053.6671

Electronic ISSN:

2720-5266 ; 2720-5266

Print ISSN:

2081-5891 ; 2081-5891

Language:

angielski ; angielski

License:

kliknij tutaj, żeby przejść ; kliknij tutaj, żeby przejść

Rights holder:

Wojskowa Akademia Techniczna ; Wojskowa Akademia Techniczna

Starting page:

51 ; 51

Ending page:

72 ; 72

Volume:

14 ; 14

Journal:

PROMECH ; PROMECH

Keywords:

microstructure, stainless steel, selective laser melting, additive manufacturing, split Hopkinson pressure bar ; microstructure, stainless steel, selective laser melting, additive manufacturing, split Hopkinson pressure bar