This work continues the studies on searching for plasma media with the inverse electron energy distribution function (EEDF) and providing recommendations for setting up subsequent experiments. The inverse EEDF is a distribution function that increases with an increase in energy at zero electron energy. The inverse EEDF plays a central role in the problem of negative conductivity. Based on the previously obtained criterion for the formation of an inverse EEDF in a spatially inhomogeneous plasma, a heuristic method is proposed that allows one to avoid resource-intensive calculations for spatially two-dimensional (2D) kinetic modeling on a large array of different glow discharges. It is shown that the conditions for EEDF inversion can be realized in two-chamber discharge structures due to violating the known Boltzmann distribution for electron density. The theoretical conclusions are validated by numerical modeling of low-pressure two-chamber inductively-coupled plasma (ICP) discharges in the COMSOL Multiphysics environment. As a result, areas of conditions with inverse EEDF were found for subsequent detailed kinetic analysis and experimental studies.