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Showing posts with the label Quantum Computing Systems Quantum Computer Architecture Quantum Software Stack NISQ Quantum Computing Hybrid Classical Quantum Computing Quantum Control Systems Quantum Compilers

Design and Implementation of a Quantum Computing System

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  A Full-Stack, Practical Perspective Quantum computing is often presented as a breakthrough in physics: qubits , superposition , entanglement , and exotic hardware operating near absolute zero . While all of that is true, it is also deeply misleading. In practice, quantum computing is not primarily a physics problem — it is a systems engineering problem . What determines whether a quantum computer is usable today is not a single component, such as qubit count or gate fidelity , but how well an entire stack of technologies works together. Hardware, control electronics , compilers, software abstractions , and classical orchestration must all align. Most real-world challenges occur at the boundaries between these layers, not within them. In this article, I present a pragmatic, full-stack view of how quantum computing systems are designed and implemented today. This perspective is grounded in hands-on work with real quantum platforms , hybrid classical–quantum workflows , and the p...