Throughout the years, the standard Volume of Fluid method has undergone several modifications in order to enhance its capabilities in predicting the behavior of multiphase flow. The present work proposes the coupling of a point-cloud curvature computation method (PC-VOF) with a geometric advection scheme based on the concept of isosurfaces (isoAdvector). An isoAdvector variant method that resolves a Reconstructed Distance Function, called isoRDF, is also contemplated. A coupling of the latter with PC-VOF is performed. The methods were implemented in OpenFOAM, and their performances were evaluated with benchmark cases. Simulations of configurations with analytical solutions were carried out as validation tests. Subsequently two 2D benchmark cases which involve the ascension of gas bubbles in viscous media were tested. One case being driven by surface tension forces and the other by inertial forces. Both quadrilateral and triangular meshes were used, and grid convergence tests were carried out. The coupled methods, as well as their original constituents were tested and compared by tracking the time variation of a set of flow quantities. The benchmark cases highlighted the importance of curvature computation in surface tension driven flows, as the original PC-VOF and the coupled solvers presented the most accurate solutions for such configuration. They have also shown the importance of an accurate advection algorithm, particularly in the inertial forces driven flows, in which the isoAdvector and isoRDF yielded good solutions. For the majority of the contemplated cases, the coupled methods presented the most accurate solutions, and they are recommended as a stable and accurate alternative for its original constituents.