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AbstractThis study investigates the impact of convective boundary conditions, thermal radiation, and viscous dissipation on the flow of fluid–particle mixture in a ciliated walled horizontal tube filled with Rabinowitsch fluid. A mathematical model is developed using partial differential equations of continuity, motion, and energy, which are solved using the symbolic software MATHEMATICA 12.0 with convective boundary conditions. Exact solutions for velocity, temperature distribution, pressure gradient, pressure rise, stream function, and heat transfer rate are obtained and analyzed for dilatant, Newtonian, and pseudoplastic fluids. Computational results reveal that the velocity and temperature profiles are highest at the center of the tube for pseudoplastic and Newtonian fluids compared to dilatant fluid. Additionally, pressure gradient fluctuates near the tube walls. The study also explores special cases where the Rabinowitsch fluid model is reduced to dilatant, Newtonian, and pseudoplastic fluids. The findings have potential applications in medical treatments for respiratory system tumors, airway cleaning, physiological fluids, and manufacturing processes involving peristaltic flow. This original research contributes to the understanding of fluid dynamics in complex systems and has implications for various practical applications. [ABSTRACT FROM AUTHOR]

The fusion of Silicon (Si) with MXene nanostructures is a promising avenue to boost the performance of lithium-ion batteries (LIBs). This comprehensive review delves into recent progress and future prospects in the realm of Si-based MXene composites for LIB applications. Starting with an in-depth analysis of the structure and characteristics of Si-based MXene nanostructures, the paper elucidates their synthesis and characterization methodologies. The subsequent discussion delves into the mechanism and properties of LIBs, pinpointing the hurdles and possibilities for enhancement. The spotlight then shifts to the utilization of MXene materials in LIBs, emphasizing their pivotal role in ameliorating battery performance. Closing off, the review explores ongoing research trends and forthcoming directions in the field, offering insights into the potential applications and obstacles of Si-based MXene composites for the evolution of next-generation LIBs. [ABSTRACT FROM AUTHOR]