The dynamics of nanoparticle (NP) or microparticle laden liquid drops have been probed extensively owing to its significance in applications such as droplet-based printing (such as inkjet printing or aerosol jet printing) of conductive and colloidal inks as well as understanding the formation and dynamics of aerosol and contamination by particulate matter . At the same time, such nanoparticle-laden liquid drops have been known to provide excellent platforms for manipulating these nanoparticles (NPs) by making them undergo processes such as aggregation inside the drop , aggregation during drop evaporation (such aggregation can lead to uniform deposits or "coffee-stain"-like non-uniform deposits) , and adsorption and self-assembly at the drop-fluid interface . Triggering interactions between NPs at the interface of a liquid drop is often facilitated by large capillary forces that these NPs experience at the interface. In fact, a generic fluid-fluid interface (not necessarily belonging to a liquid drop) utilizes the large capillary forces, imparted to the NPs by the air-water or water-oil interface, to often manipulate the ordering and self-assembly of those particles at the interface . This same large capillary force imparted by the interface hinders the extraction of NPs originally present within a liquid drop, and thus, offers a stable interface environment for ordering and self-assembling NPs. However, the controlled aggregation and extraction of the NPs (or functionalized NPs) can be utilized as a system for targeted drug delivery , etc. Such extraction of NPs in the presence of an applied force field (electrical, magnetic, etc.) from a NPladen drop, which we term as de-encapsulation in this study and refers to the NPs breaching the drop-fluid interface and coming out of the drop completely (i.e., complete de-encapsulation) with the drop shape remaining intact at the end of the process, has rarely been demonstrated in the existing literature.