Nowadays, the first most crucial condition of modern technological activities is exceptional refrigeration efficiency for standard construction. The thermal and mass efficiency of nanofluid is identified by the Buongiorno relation assessment, which encourages us to specify novel qualities of thermophoretic diffusion and random motion. Nanofluid mechanisms are accomplished in numerous fields like heat exchanger, solar water heating, and vehicle thermal control. The suggested thermoelectric system depends on the density of the flow, the heat of nanomaterial, the fractional volume of nanomaterial and the motile microorganisms. Ferromagnetic-nanoparticles have become extremely popular in bio-technology due to the vast applications in the field. Various technical and mathematical constraints are accounted in order to produce more beneficial data. The necessary conversion method is used to transform a system of PDEs into a collection of non-linear ordinary differential equations. Such transformed expressions are evaluated numerically by the MATLAB function bvp4c by using the shooting scheme. Some observations are elaborated in the literature dealing with the bio-convection process and other unique characteristics. Graphs are shown for the formulation of various flow factors that influence the dimensionless quantities. Current theoretical model may be useful in manufacturing methods, energy transfer upgrades and thermal energy.

如今，现代技术活动的第一个最关键的条件是标准结构的出色制冷效率。通过Buongiorno关系评估确定了纳米流体的热效率和质量效率，这鼓励我们指定热泳扩散和随机运动的新颖性质。纳米流体机制在热交换器，太阳能加热和车辆热控制等众多领域中都得到了实现。建议的热电系统取决于流动的密度，纳米材料的热量，纳米材料的分数体积和运动微生物。由于在该领域的广泛应用，铁磁纳米颗粒已在生物技术中变得极为流行。考虑到各种技术和数学约束，以便产生更多的有益数据。必要的转换方法用于将PDE系统转换为非线性常微分方程的集合。通过使用射击方案，MATLAB函数bvp4c对这些转换后的表达式进行了数值评估。有关生物对流过程和其他独特特征的文献中详细阐述了一些观察。图中显示了影响无量纲量的各种流量系数的公式。当前的理论模型可能对制造方法，能量转移升级和热能有用。有关生物对流过程和其他独特特征的文献中详细阐述了一些观察。图中显示了影响无量纲量的各种流量系数的公式。当前的理论模型可能对制造方法，能量转移升级和热能有用。有关生物对流过程和其他独特特征的文献中详细阐述了一些观察。图中显示了影响无量纲量的各种流量系数的公式。当前的理论模型可能对制造方法，能量转移升级和热能有用。