Strain evolution after fiber failure in a single-fiber metal matrix composite under cyclic loading

Jay C. Hanan; Sivasambu Mahesh; Ersan Üstündag; Irene J. Beyerlein; Geoffrey A. Swift; Bjørn Clausen; Donald W. Brown; Mark A.M. Bourke

doi:10.1016/j.msea.2005.02.018

Strain evolution after fiber failure in a single-fiber metal matrix composite under cyclic loading

Jay C. Hanan^*
, Sivasambu Mahesh
, Ersan Üstündag
, Irene J. Beyerlein
, Geoffrey A. Swift
, Bjørn Clausen
, Donald W. Brown
, Mark A.M. Bourke

^*Bu çalışma için yazışmadan sorumlu yazar

California Institute of Technology
Oklahoma State University
Los Alamos National Laboratory Materials Science and Technology Division
Los Alamos National Laboratory Theoretical Division

Araştırma çıktısı: Dergi yayını › Makale › Hakem

10 Atıf (Scopus)

Özet

The evolution of in situ elastic strain with cyclic tensile loading in each phase of a single Al₂O₃-fiber/aluminum-matrix composite was studied using neutron diffraction (ND). An analytical model appropriate for metal matrix composites (MMCs) was developed to connect the measured axial strain evolution in each phase with the possible micromechanical events that could occur during loading at room temperature: fiber fracture, interfacial slipping, and matrix plastic deformation. Model interpretation showed that the elastic strain evolution in the fiber and matrix was governed by fiber fracture and interface slipping and not by plastic deformation of the matrix, whereas the macroscopic stress-strain response of the composite was influenced by all three. The combined single-fiber composite model and ND experiment introduces a new and quick engineering approach for qualifying the micromechanical response in MMCs due to cyclic loading and fiber fracture.

Orijinal dil	İngilizce
Sayfa (başlangıç-bitiş)	33-42
Sayfa sayısı	10
Dergi	Materials Science and Engineering: A
Hacim	399
Basın numarası	1-2
DOI'lar	https://doi.org/10.1016/j.msea.2005.02.018
Yayın durumu	Yayınlandı - 15 Haz 2005
Harici olarak yayınlandı	Evet

Finansman

Funding was provided by the National Science Foundation (CAREER grant no. DMR-9985264) at Caltech and a Laboratory-Directed Research and Development Project (no. 2000043) at Los Alamos. The neutron diffraction experiments were conducted at the Lujan Center, LANSCE, a national user facility supported by the Department of Energy, Office of Basic Energy Sciences under contract W-7405-ENG-36. Dr. C. Brian Hooper assisted with the radiographic measurements.

Finansörler	Finansör numarası
Laboratory-Directed Research and Development Project	2000043
Los Alamos
National Science Foundation	DMR-9985264
U.S. Department of Energy
Basic Energy Sciences	W-7405-ENG-36

Belgeye Erişim

10.1016/j.msea.2005.02.018

Diğer Dosyalar ve Linkler

Link to publication in Scopus

Alıntı Yap

@article{20a09a5106624e47a25a395f494201db,

title = "Strain evolution after fiber failure in a single-fiber metal matrix composite under cyclic loading",

abstract = "The evolution of in situ elastic strain with cyclic tensile loading in each phase of a single Al2O3-fiber/aluminum-matrix composite was studied using neutron diffraction (ND). An analytical model appropriate for metal matrix composites (MMCs) was developed to connect the measured axial strain evolution in each phase with the possible micromechanical events that could occur during loading at room temperature: fiber fracture, interfacial slipping, and matrix plastic deformation. Model interpretation showed that the elastic strain evolution in the fiber and matrix was governed by fiber fracture and interface slipping and not by plastic deformation of the matrix, whereas the macroscopic stress-strain response of the composite was influenced by all three. The combined single-fiber composite model and ND experiment introduces a new and quick engineering approach for qualifying the micromechanical response in MMCs due to cyclic loading and fiber fracture.",

keywords = "Composite deformation, Fiber failure, Interface shear, Metal matrix composites, Micromechanical events, Neutron diffraction",

author = "Hanan, \{Jay C.\} and Sivasambu Mahesh and Ersan {\"U}st{\"u}ndag and Beyerlein, \{Irene J.\} and Swift, \{Geoffrey A.\} and Bj{\o}rn Clausen and Brown, \{Donald W.\} and Bourke, \{Mark A.M.\}",

year = "2005",

month = jun,

day = "15",

doi = "10.1016/j.msea.2005.02.018",

language = "English",

volume = "399",

pages = "33--42",

journal = "Materials Science and Engineering: A",

issn = "0921-5093",

publisher = "Elsevier Ltd",

number = "1-2",

}

TY - JOUR

T1 - Strain evolution after fiber failure in a single-fiber metal matrix composite under cyclic loading

AU - Hanan, Jay C.

AU - Mahesh, Sivasambu

AU - Üstündag, Ersan

AU - Beyerlein, Irene J.

AU - Swift, Geoffrey A.

AU - Clausen, Bjørn

AU - Brown, Donald W.

AU - Bourke, Mark A.M.

PY - 2005/6/15

Y1 - 2005/6/15

N2 - The evolution of in situ elastic strain with cyclic tensile loading in each phase of a single Al2O3-fiber/aluminum-matrix composite was studied using neutron diffraction (ND). An analytical model appropriate for metal matrix composites (MMCs) was developed to connect the measured axial strain evolution in each phase with the possible micromechanical events that could occur during loading at room temperature: fiber fracture, interfacial slipping, and matrix plastic deformation. Model interpretation showed that the elastic strain evolution in the fiber and matrix was governed by fiber fracture and interface slipping and not by plastic deformation of the matrix, whereas the macroscopic stress-strain response of the composite was influenced by all three. The combined single-fiber composite model and ND experiment introduces a new and quick engineering approach for qualifying the micromechanical response in MMCs due to cyclic loading and fiber fracture.

AB - The evolution of in situ elastic strain with cyclic tensile loading in each phase of a single Al2O3-fiber/aluminum-matrix composite was studied using neutron diffraction (ND). An analytical model appropriate for metal matrix composites (MMCs) was developed to connect the measured axial strain evolution in each phase with the possible micromechanical events that could occur during loading at room temperature: fiber fracture, interfacial slipping, and matrix plastic deformation. Model interpretation showed that the elastic strain evolution in the fiber and matrix was governed by fiber fracture and interface slipping and not by plastic deformation of the matrix, whereas the macroscopic stress-strain response of the composite was influenced by all three. The combined single-fiber composite model and ND experiment introduces a new and quick engineering approach for qualifying the micromechanical response in MMCs due to cyclic loading and fiber fracture.

KW - Composite deformation

KW - Fiber failure

KW - Interface shear

KW - Metal matrix composites

KW - Micromechanical events

KW - Neutron diffraction

UR - https://www.scopus.com/pages/publications/23444446888

U2 - 10.1016/j.msea.2005.02.018

DO - 10.1016/j.msea.2005.02.018

M3 - Article

AN - SCOPUS:23444446888

SN - 0921-5093

VL - 399

SP - 33

EP - 42

JO - Materials Science and Engineering: A

JF - Materials Science and Engineering: A

IS - 1-2

ER -

Strain evolution after fiber failure in a single-fiber metal matrix composite under cyclic loading

Özet

Finansman

Belgeye Erişim

Diğer Dosyalar ve Linkler

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