Protein-protein interactions are essential for a variety of biological phenomena including mediating bio-chemical reactions, cell signaling, and the immune response. Proteins seek to form interfaces which reduce overall system energy. Although determination of single polypeptide chain protein structures has been revolutionized by deep learning techniques, complex prediction has still not been perfected. Additionally, experimentally determining structures is incredibly resource and time expensive, as well as difficult to perform. An alternative is the technique of computational docking, which takes the solved individual structures of proteins to produce candidate interfaces (decoys). Decoys are then scored using a mathematical function that predicts the energy of the system, know as scoring functions. Beyond docking, scoring functions are a critical component of assessing structures produced by many protein generative models. In this work we present improved scoring functions for protein-protein interactions which utilizes cutting-edge euclidean graph neural network architectures, in particular protein-protein docking scoring, as well as scoring antibody-antigen interfaces. Theseeuclideandockingscoremodels are known as EuDockScore, and EuDockScore-Ab with the latter being antibody-antigen specific. Additionally, we provide an antibody-antigen specific model specifically tuned to work with AlphaFold-Multimer outputs called EuDockScore-AFM showing evidence that the energy function learned by AlphaFold-like models can distilled. Finally, EuDockScore-AFSample is a model particular to scoring models from a the state-of-the-art complex predictor AFSample. These models can be used in conjunction with existing and new generative models to assess model energetics. The code for these models is available athttps://gitlab.com/mcfeemat/eudockscore.