In this paper, I aim to describe a system of interconnected energy models. These models produce inferences that may enhance our understanding of classical and quantum mechanics. From the formulated models, an empirical test is derived to validate the proposed light projection hypothesis. It is understood that a chasm exists between our classical understanding of relativity and the subatomic descriptions of quantum mechanics. Many theories provide solutions to this discrepancy: from superstrings to loop quantum gravity and other numerous paradigms, each with their significant contributions to furthering our knowledge of theoretical physics. The system of models I present provides a foundation for reframing the underlying assumptions of special relativity and an alternate description of quantum activity. By simplifying our understanding of time, we are able to shift to homogeneous coordinates as a viable basis. From homogeneous coordinates, we can create a spatial framework of reality. The spatial framework allows us to hypothesize the function of black holes and discern the projections of higher dimensions of light. The projections of light hint toward a cosmic camera obscura that a pinhole camera matrix can model. We can then view the entire structure through a different lens and relate the layers of light projections to a Deep Restricted Boltzmann Network (DRBN) representation of quantum information.