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Journal Articles
Accepted Manuscript
Article Type: Research Papers
J. Eng. Mater. Technol.
Paper No: MATS-22-1090
Published Online: January 23, 2023
Journal Articles
Accepted Manuscript
Kellis C. Kincaid, David W. MacPhee, George Stubblefield, J.B. Jordon, Timothy W. Rushing, Paul Allison
Article Type: Research Papers
J. Eng. Mater. Technol.
Paper No: MATS-22-1017
Published Online: January 10, 2023
Journal Articles
Article Type: Research Papers
J. Eng. Mater. Technol. July 2023, 145(3): 031001.
Paper No: MATS-22-1124
Published Online: December 26, 2022
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 1 ( a ) The textile architecture of the 3D textile SiC/SiC CMCs and ( b ) Z -fiber is introduced to suture the fabric up and down along the thickness direction and perpendicular to the warp and weft yarn More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 2 Microstructure of the 3D textile SiC/SiC CMCs observed by 3D X-ray tomography visualization. Dark and light represent the weft fibers and warp fibers, respectively. More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 3 The load configuration of the three-point bend flexure experiments; the region represented by the dashed line is the region of interest for DIC analysis. Here, the supporting span, L S , is 50 mm, and both the load nose radius, r L , and the support radius, r S , are 2 mm. More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 4 ( a ) SEM micrograph of a polished SiC/SiC composite (failure specimen) cross section, ( b ) fiber debonding and crack propagation in fracture surfaces of the compress side, ( c ) fiber pull-out in fracture surfaces of the tensile side, and ( d ) fracture origins in partially fibers associa... More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 5 Schematic illustration of the damage sequence of the SiC/SiC CMCs under three-point flexural loading: ( a ) crack nucleation, ( b ) crack propagation at the highest shear location, and ( c ) crack progressive propagation driven by shear stress and the needle cracks present at the highest be... More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 6 Stress–strain curves of SiC/SiC CMC specimens tested using a three-point bend configuration at room temperature. Distinction between the different domains of the curves, namely, the first nonlinear part and the second quasi-linear part More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 7 Displacement fields of the specimen in the XY plane under different loadings, generated by DIC. The bending center is marked by dotted lines, which is the location of the loading pin. More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 8 Evolution of the flexural strain field ε x x with increasing applied stress. The dotted lines represent the location of the loading pin. More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 9 Normalized strains ( ε x x ( I / M ) ) along the direction of thickness ( Y ) More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 10 The relationship between E and the applied stress and similar results were reported by Liu et al. [ 29 ] for 3D four-step braided SiC/SiC CMCs More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 11 Flexural loading-induced damage variation as a function of the applied stress for the SiC/SiC CMCs More
Image
in A Quantitative Representation of Damage and Failure Response of Three-Dimensional Textile SiC/SiC Ceramics Matrix Composites Subjected to Flexural Loading
> Journal of Engineering Materials and Technology
Published Online: December 26, 2022
Fig. 12 Flexural loading-induced damage evolution with the energy density release rate Y for the SiC/SiC CMCs under flexural loading More
Journal Articles
Article Type: Research Papers
J. Eng. Mater. Technol. April 2023, 145(2): 021007.
Paper No: MATS-21-1283
Published Online: December 6, 2022
Image
in The Mechanism of Slip System Activation With Grain Rotation During Superplastic Forming
> Journal of Engineering Materials and Technology
Published Online: December 6, 2022
Fig. 1 The initial microstructure of the received titanium alloy More
Image
in The Mechanism of Slip System Activation With Grain Rotation During Superplastic Forming
> Journal of Engineering Materials and Technology
Published Online: December 6, 2022
Fig. 2 The charts of the experimental process: ( a ) specimen dimensions, ( b ) temperature control curve, ( c ) high-temperature test machines, ( d ) specimens before and after testing, and ( e ) metallographic observation equipment of XRD and EBSD More
Image
in The Mechanism of Slip System Activation With Grain Rotation During Superplastic Forming
> Journal of Engineering Materials and Technology
Published Online: December 6, 2022
Fig. 3 The XRD data for the received material More
Image
in The Mechanism of Slip System Activation With Grain Rotation During Superplastic Forming
> Journal of Engineering Materials and Technology
Published Online: December 6, 2022
Fig. 4 The initial microstructure of α -phase by EBSD Z -axis map: ( a ) inverse pole figure and ( b ) pole figure More