gravity-mediation. Within this framework, we investigated three main possible scenarios, concerning the flavor structure of the gravity-mediated soft breaking terms: The first scenario has been studied in a previous paper [7], while the latter two are explored in this work. Additional scenarios that we investigated (one where holomorphic zeros play a role and another where the A -terms vanish at the Planck scale) provide further variations, but we will explain our main conclusions on the basis of the three main ones. Within this framework, we are able to answer the following questions, which will be relevant whatever type of new physics will be discovered: Table IX should be helpful in clarifying our main conclusions. We learn that any improvement in the upper bound on CP violation in neutral D mixing or on the neutron EDM will have an impact on our framework. It will make the upper bound on the ratio of gravity-to-gauge mediation stronger (in, respectively, the An-FN and An- An scenarios) or, equivalently, it will strengthen the upper bound on the messenger scale of gauge-mediation. Conversely, if non-MFV effects are observed, their size will provide a lower bound on the size of gravity-mediated contributions. In models of a single scale supersymmetry breaking, such a bound can be translated into a lower bound on this scale. We can further make the following general statements, some of which are valid well beyond the specific framework of new physics that we have studied: 23 • Which processes are most likely to show deviations from the standard model? • At what level can these effects appear? • Can we tell whether the flavor pattern of the gravity-mediated contributions is related to the standard model flavor pattern or not? 1. The flavor structure of all such terms is dictated by a Froggatt-Nielsen symmetry, which is also responsible for the smallness and hierarchy in the Yukawa terms. 2. The flavor structure of the squark mass-squared matrix is anarchical, while the A -terms are subject to the FN selection rules. 3. The flavor structure of all soft supersymmetry breaking terms is anarchical.