The goal of this research is to combine vision with aspects of language and social cognition to obtain complex knowledge about the environment. To obtain a full understanding of visual scenes, computational models should be able to extract from the scene any meaningful information that a human observer can extract about actions, agents, goals, scenes and object configurations, social interactions, and more. We refer to this as the ‘Turing test for vision,’ i.e., the ability of a machine to use vision to answer a large and flexible set of queries about objects and agents in an image in a human-like manner. Queries might be about objects, their parts, and spatial relations between objects, actions, goals, and interactions. Understanding queries and formulating answers requires interactions between vision and natural language. Interpreting goals and interactions requires connections between vision and social cognition. Answering queries also requires task-dependent processing, i.e., different visual processes to achieve different goals.
We are studying human visual processing using image patches that are minimal recognizable configurations (MiRC) of larger images. Although they represent only a small portion of the image, the majority of people can recognize MiRC images, while any cropping or down-sampling severely hurts recognition performance.
