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This article focuses on Dr. Rowshan's work with qLDPC codes to address quantum error correction, a fundamental hurdle for scaling fault-tolerant quantum computing. By reducing the physical qubit overhead required for encoding information, this research aims to bridge the gap between theoretical coding theory and practical quantum architectures. The piece highlights the critical need for efficient error management as systems expand beyond simple qubit counts.
Dr Rowshan joins Sydney Quantum Academy to tackle error correction

Dr Mohammad Rowshan joins the Sydney Quantum Academy Experts Network to explore new approaches to quantum error correction. He researches how qLDPC codes could reduce the resources needed to protect quantum information and help make fault-tolerant quantum computing a reality, addressing one of quantum computing's biggest challenges.
The challenge of scaling quantum computing beyond simply adding qubits is intensifying, with even “very small error rates” becoming critical as computations grow, according to Dr Mohammad Rowshan. A Research Fellow at Sydney’s Centre for Quantum Software and Information, Dr Rowshan has joined the Sydney Quantum Academy Experts Network to focus…
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