WHY BINARY!!

Abstract

WHY BINARY? Rethinking the Fundamental Architecture of Computation This paper explores a fundamental question about the architecture of modern computing: Is binary computation the only practical foundation for building intelligent machines, or can computation be reimagined around physical representations of information and intelligence? The rapid development of artificial intelligence has exposed limitations in conventional computing architectures, particularly the increasing cost of moving data between processors and memory, the energy required for large-scale AI workloads, and the dependence on centralized cloud infrastructure. This work proposes a conceptual shift toward AI as a physical computing substrate. Instead of treating an AI model merely as software executed on conventional processors, the paper explores the possibility of embedding the computational structure of an AI model directly into specialized hardware or semiconductor architectures. In such a system, model parameters and physical computation could become part of the hardware itself, allowing inference and other AI operations to occur locally with reduced data movement and potentially lower latency and energy consumption. The paper examines the implications of this approach for edge AI, neuromorphic and in-memory computing, semiconductor design, AI accelerators, and future computing architectures. It also considers the broader question of whether future computers should continue to separate software, computation, memory, and physical hardware in the way conventional architectures do today. Rather than presenting a finished commercial technology, this paper is intended as a conceptual and exploratory research proposal. Its purpose is to stimulate discussion and further research into architectures in which intelligence is not simply executed by hardware, but is more deeply embodied within the physical computing substrate itself. Keywords: Artificial Intelligence, AI Hardware, Edge AI, Semiconductor Architecture, In-Memory Computing, Neuromorphic Computing, AI Accelerators, Hardware-Embedded AI, Computing Architecture, Physical Computing, Machine Learning Hardware, Future Computing.