Abstract
The dominant paradigm in computer vision is to train large Convolutional Neural Networks (CNNs) to map pixels directly to labels. This approach has produced systems with super- human benchmark performance but suffers from serious structural weaknesses. As shown in my prior work, The Weaponization of Imperfection, these models do not truly identify objects; they optimize for statistical correlations in continuous feature space. This inherent reliance on high-dimensional probability optimization leaves them topologically vulnerable to imperceptible adversarial noise that can arbitrarily force a catastrophic misclassification, such as turning an ambulance into a tank (Akbar, 2025). In this proposal, drawing inspiration from the Generative Latent Prediction framework of World Models and the success of Retrieval-Augmented Generation (RAG) in multimodal systems, I critique the reliance on monolithic classification. I argue that the primary goal of a robust vision system should not be classification, which is fundamentally guessing, but deterministic identification, which is verifiable retrieval from memory. I propose RAOI (Retrieval-Augmented Object Identification), a new modular architecture that structurally separates the mechanism of visual encoding from semantic memory. By combining principled background isolation, a robust discrete visual hashing mechanism, and an external retrieval memory (VRMS) like DNS, RAOI offers a path toward systems that are more robust, adaptable, and intrinsically interpretable than current end-to-end networks.
Keywords: Retrieval-Augmented Vision, Adversarial Robustness, Discrete Hashing, Open-World Learning, Object Detection



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