Evolving Toward a Discipline: Systematic Curriculum Design for Quantum Computing

Quantum computing is emerging as a transformative domain in modern physics and technology, with rapidly increasing demand for an educated workforce. Yet, compared with established fields such as electrical engineering and computer science, quantum computing education remains fragmented and lacks a coherent curricular structure. Because of the inherently abstract and interdisciplinary nature of quantum computing, effective learning requires a carefully designed scaffolding of concepts that progressively links mathematical formalisms with physical intuition and computational practice.

We propose a systematic framework for quantum computing curriculum design that integrates physics, mathematics, and computer science within a unified educational pathway. Drawing upon historical parallels from the evolution of EE and CS programs, we identify key workforce categories—from quantum-aware to quantum-expert—and formulate educational objectives aligned with each.

​​​​​​​Building on these principles, we outline a structured sequence of courses spanning undergraduate to graduate levels, developed over the past three years along with our Scaffolding Approach and a companion textbook series (Mathematical Foundations, Quantum Computing and Information, and Quantum Algorithms and Applications). This framework emphasizes cumulative conceptual development, cross-disciplinary integration, and scalability across institutions. We discuss implementation experiences, assessment outcomes, and the broader implications for establishing quantum computing as a distinct academic discipline in the coming decade.