@ARTICLE{Bogucki_R._The_2019, author={Bogucki, R. and Basiaga, M. and Żyra, A.}, volume={vol. 64}, number={No 2}, journal={Archives of Metallurgy and Materials}, pages={759-764}, howpublished={online}, year={2019}, publisher={Institute of Metallurgy and Materials Science of Polish Academy of Sciences}, publisher={Committee of Materials Engineering and Metallurgy of Polish Academy of Sciences}, abstract={The paper presents the results of the Ti10V2Fe3Al alloy crack resistance assessment using the Rice’s J-integral technique as a function of morphology and volume fraction of α-phase precipitates. Titanium alloys characterized by the two-phase structure α + β are an interesting alternative to classic steels with high mechanical properties. Despite the high manufacturing costs and processing of titanium alloys, they are used in heavily loaded constructions in the aerospace industry due to its high strength to density ratio. The literature lacks detailed data on the influence of microstructure and, in particular, the morphology of α phase precipitates on fracture toughness in high strength titanium alloys. In the following work an attempt was made to determine the correlation between the microstructure and resistance to cracking in the Ti10V2Fe3Al alloy.}, type={Artykuły / Articles}, title={The Evaluation of Resistance to Cracking of TI10V2FE3AL Alloy Characterized by Different Morphology and Volume Fraction of Α-Phase Precipitates}, URL={http://www.czasopisma.pan.pl/Content/111350/PDF/AMM-2019-2-53-Bogucki.pdf}, doi={10.24425/amm.2019.127610}, keywords={fracture mechanical, Rice’s J-integral, stress induced martensite (SIM), metastable β titanium alloy}, }