Magnetic nanostructures have been largely explored and investigated because of their significant contribution in the field of nanotherapeutics . From spherical particles to anisotropic structures, like rods, rings, cubes, etc., magnetic nanomaterials based on iron oxides have witnessed extensive applications to address major biomedical concerns . However, there are certain limitations associated with these isolated nanostructures. It is somehow a challenging task to steer a swarm of such nanostructures to the tumor-specific site by the application of an external magnetic field. The possibility of particles getting diffused in the biological space is significantly higher, and maneuverability, in this case, is greatly compromised. Furthermore, unwanted particle aggregation in the physiological system may severely affect the normal functioning of various treatment modalities . On the contrary, inspired by the flagellar motion of bacteria, magnetic nanorobots, primarily composed of ferromagnetic components like Fe, Fe-Co, FePt, can be safely guided to the diseased-specific site by means of rotating magnetic fields of reasonably low magnitudes, typically < 80 Gauss, which is not detrimental to healthy tissues . The nanorobots are widely studied and much appreciated for their controlled manipulation and precise delivery of payloads in the physiological space . These tiny magnetic robots are capable of controlled navigation through low Reynolds number fluid (where viscous forces dominate over inertial forces), mimicking physiologically relevant environments like blood, urine, mucus, saliva .