Magnetic nanoparticles (MNPs), such as Fe3O4 are known to be biocompatible and have been extensively studied in the context of drug-delivery and magnetic-field induced selfassembly and ordering in various fluid media. The behavior of the MNPs dispersed in a fluid medium under an applied magnetic field provides insights into the kinetics and structured ordering of the MNPs in the bulk and at the fluid interface. However, there is very scarce evidence of the de-encapsulation phenomenon of these magnetic NPs from a magnetic nanoparticle laden drop (MNLD) suspended in an immiscible fluid medium. In fact, to the best of our knowledge, there is little evidence of any type of NPs (or NP aggregate) undergoing controlled de-encapsulation from the interior of a liquid drop, given the fact that such de-encapsulation will entail the particles (from the interior of the drop) coming out of the drop entirely by breaching the very strong capillary forces at the drop-fluid interface. Achieving such de-encapsulation will be a major breakthrough since this will imply that we can achieve on-demand particle deposition at desired locations by simply transporting the particle-laden liquid drop to such locations and triggering the de-encapsulation.