Mainak Saha
@samurai.nims.go.jp
Postdoctoral researcher, Nanostructure Analysis Group, Research Centre for Magnetic and Spintronic Materials
National Institute for Materials Science
I have recently completed my PhD in the Dept of Metallurgical and Materials Engineering at IIT Madras. My doctoral research was primarily based on understanding the stability of different phases and correlating the same with the mechanical response of Ni-alloyed Fe-Mn-Al-C steels with high specific strength. I have previously, been an undergraduate student of Metallurgical and Materials Engineering at NIT Durgapur. I am currently pursuing my postdoctoral research at Nanostructure Analysis group, Research Centre for Magnetic and Spintronic Materials, National Institute for Materials Science (Japan) since October 2023.
EDUCATION
July 2014-July 2018: B.Tech (Metallurgical and Materials Engineering NIT Durgapur)
July: 2018- July 2023: M.S. + Ph.D (Metallurgical and Materials Engineering), IIT Madras
RESEARCH, TEACHING, or OTHER INTERESTS
Metals and Alloys, Materials Chemistry
Scopus Publications
Scholar Citations
Scholar h-index
Scholar i10-index
Scopus Publications
Yafei Wang, Jianwei Tang, Hiro Fujihara, Nozomu Adachi, Yoshikazu Todaka, Yuantao Xu, Mainak Saha, Taisuke Sasaki, Kazuyuki Shimizu, Kyosuke Hirayama,et al.
Elsevier BV
G. Vijayaragavan, D. Prabhu, M.B. Ponnuchamy, K.R.S. Preethi Meher, Ravi Gautam, Mainak Saha, R. Gopalan, and K.G. Pradeep
Elsevier BV
Mainak Saha and Manab Mallik
Elsevier
Mainak Saha, M. B. Ponnuchamy, M. Sadhasivam, Chinmoy Mahata, G. Vijayaragavan, Karanam Gururaj, K. Suresh, N. Chandrasekaran, D. Prabhu, Krushna Kumbhar,et al.
Springer Science and Business Media LLC
K. Gururaj, Mainak Saha, Sumit Kumar Maurya, Rajat Nama, A. Alankar, M.B. Ponnuchamy, and K.G. Pradeep
Elsevier BV
Mainak Saha and Manab Mallik
Elsevier
Mainak Saha
Informa UK Limited
ABSTRACT Creep deformation in single-phase ɤ-TiAl alloys manufactured using different processing techniques has been an extensively studied topic owing to the high specific strength and excellent creep properties of these alloys at temperatures between 760 and 1000°C. In addition, these lightweight and creep-resistant alloys are being presently considered as replacements to the comparatively heavier Ni-based superalloys for application in the low-pressure turbine blades of the next-generation gas turbine engines. However, there is limited information on the tensile creep deformation behaviour and creep life of ɤ-TiAl alloys at 832°C where these alloys have been reported not to exhibit steady-state creep. To this end, the present work revisits the work on understanding the tensile creep deformation behaviour of wrought single-phase ɤ-TiAl alloy by Saha [1] and is aimed to develop an understanding of the tensile creep deformation behaviour at 832°C and the influence of creep activation energy on the creep life of wrought single-phase ɤ-TiAl alloy for stress levels of 69.4 and 103.4 MPa at 832°C using Monkman–Grant [2] approach.
Mainak Saha and Manab Mallik
Springer Science and Business Media LLC
Mainak Saha
Elsevier BV