The remarkable characteristics of hybrid nanofluids, including enhanced heat transfer rates, attractive thermal conductivity, and cost-effectiveness, have garnered significant attention from researchers worldwide. This numerical analysis focuses on investigating the impact of velocity slip in the radiative hybrid nanofluid (Cu–TiO2/water) flow over a curved sheet. Additionally, the study explores thermal slip in the boundary layer flow in the presence of viscous dissipation. The bvp4c method, implemented through MATLAB software, is utilized for obtaining mathematical results. The influence of various governing parameters on virtual flow properties, velocity, and temperature is examined, with the results presented graphically. Key quantities such as wall shear stress and heat transfer coefficient are calculated, and the outcomes are tabulated and graphically represented. The findings highlight the thermal behavior of the system, indicating an enhancement in the presence of nanoparticles, thermal radiation, and viscous dissipation. Moreover, the fluid velocity increases with greater curvature effects. These insights hold potential applications in engineering and materials science.

混合纳米流体的显着特征，包括增强的传热速率、有吸引力的导热性和成本效益，引起了全世界研究人员的极大关注。该数值分析重点研究弯曲片上辐射混合纳米流体（Cu-TiO2/水）流动中速度滑移的影响。此外，该研究还探讨了存在粘性耗散的情况下边界层流中的热滑移。 bvp4c 方法通过 MATLAB 软件实现，用于获得数学结果。检查了各种控制参数对虚拟流动特性、速度和温度的影响，并以图形方式显示结果。计算壁剪应力和传热系数等关键量，并将结果制成表格和图形表示。研究结果强调了系统的热行为，表明纳米粒子、热辐射和粘性耗散的存在有所增强。此外，流体速度随着曲率效应的增大而增加。这些见解在工程和材料科学中具有潜在的应用前景。