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Browsing by Author "Arafin, Sk Abdul Kader"

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    Performance Evaluation of High-Performance Self-Compacting Concrete with Waste Glass Aggregate and Metakaolin
    (Elsevier, 2023-05-15) Sobuz, Md. Habibur Rahman; Meraz, Md Montaseer; Safayet, Md. Abu; Mim, Nusrat Jahan; Mehedi, Md Tanjid; Farsangi, Ehsan Noroozinejad; Shrestha, Rajesh Kumar; Arafin, Sk Abdul Kader; Bibi, Tayyaba; Hussain, Md Shakhaoat; Bhattacharya, Badhon; Aftab, Md Reduan; Paul, Sujon Kumar; Paul, Prince; Meraz, Md Musfike
    High-Performance Self-Compacting Concrete (HPSCC) has attracted much attention in recent decades due to its remarkable ability to fill formworks with densely packed reinforcing bars while requiring minimal or no external compaction. Because of the negative environmental impacts of cement and natural aggregates in concrete production, a much more sustainable alternative to manufacturing HPSCC is required. Recycled glass waste is one of the most attractive waste materials that can be used to create sustainable concrete compounds, which is currently a major area of study among researchers. This study aims to develop information not only about the fresh, mechanical, and durability characteristics of HPSCC, evaluate the environmental impact and correlate the crushing strength using a non-destructive approach by utilizing waste glass aggregates at replacement percentages of 0%, 10%, 20%, 30%, and 40%. To improve the performance of the produced HPSCC, Metakaolin was also added. The results of the fresh concrete tests revealed that the substitution of an optimal level of waste glass with Metakaolin provides adequate implementation in flowability, passing ability, and viscosity behaviors. Even though there is a reduction in the mechanical performance with glass aggregates, Metakaolin significantly improved strength and ductility by up to 16.12% and 15.91%, respectively. Furthermore, in most cases, the use of glass aggregates with Metakaolin significantly alters the durability properties of concrete while minimizing the environmental impact as well as the overall project cost. Finally, the NDT assessment demonstrates that the analytical equation can efficiently predict the compressive strength and promising to use for field application.
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    Scattering of e ±± by H-isonuclear series
    (Scopus, 2024-06-27) Khatun, M.Mousumi; Ali, M.Yousuf; Arafin, Sk Abdul Kader; Watabe, Hiroshi; Haque, A.K Fazlul
    Calculations are presented for elastic differential and integrated cross-sections like elastic, momentum transfer, viscosity, inelastic, total (elastic + inelastic) and total ionization along with the Sherman functions for electrons and positrons scattering from hydrogen isonuclear series at incident energies from 1 eV to 1 MeV. To describe the scattering from neutral atoms, this work employs the relativistic Dirac partial wave (phase-shift) analysis with a short-range complex optical-potential model (OPM), comprising static, polarization, exchange (for electrons only), and absorption potentials. This potential is supplemented by the modified Coulomb potential for the same purpose for a charged atom. A reasonable agreement is found when we compare our computed results with available experimental data and other theoretical computations.
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    Scattering of e± by H-iso nuclear series
    (IOP Publications, 2024-06-27) Khatun, M Mousumi; Ali, M Yousuf; Arafin, Sk Abdul Kader; Watabe, Hiroshi; Haque, A K Fazlul; Uddin, M Alfaz
    Calculations are presented for elastic differential and integrated cross-sections like elastic, momentum transfer, viscosity, inelastic, total (elastic + inelastic) and total ionization along with the Sherman functions for electrons and positrons scattering from hydrogen isonuclear series at incident energies from 1 eV to 1 MeV. To describe the scattering from neutral atoms, this work employs the relativistic Dirac partial wave (phase-shift) analysis with a short-range complex optical-potential model (OPM), comprising static, polarization, exchange (for electrons only), and absorption potentials. This potential is supplemented by the modified Coulomb potential for the same purpose for a charged atom. A reasonable agreement is found when we compare our computed results with available experimental data and other theoretical computations.
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    Scattering of e± by H-isonuclear Series
    (Purpose Led publishers, 2024-06-27) Khatun, M. Mousumi; Ali, M Yousuf; Arafin, Sk Abdul Kader; Watabe, Hiroshi; Haque, A K Fazlul; Uddin, M Alfaz
    Calculations are presented for elastic differential and integrated cross-sections like elastic, momentum transfer, viscosity, inelastic, total (elastic + inelastic) and total ionization along with the Sherman functions for electrons and positrons scattering from hydrogen isonuclear series at incident energies from 1 eV to 1 MeV. To describe the scattering from neutral atoms, this work employs the relativistic Dirac partial wave (phase-shift) analysis with a short-range complex optical-potential model (OPM), comprising static, polarization, exchange (for electrons only), and absorption potentials. This potential is supplemented by the modified Coulomb potential for the same purpose for a charged atom. A reasonable agreement is found when we compare our computed results with available experimental data and other theoretical computations.

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