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Researchers are converging on a unified framework that treats error suppression, mitigation, and correction as complementary layers rather than isolated fixes. This holistic approach is critical for bridging the gap between current noisy intermediate-scale quantum (NISQ) devices and future fault-tolerant machines by optimizing control across all stages of development. The integration of these techniques with emerging logical qubits represents a necessary evolution to achieve reliable, complex quantum computations.
Researchers Unify Strategies to Cut Quantum Computing Errors
Previously, tackling imperfections in quantum computers meant choosing between suppressing flaws at source or mitigating impacts after they occurred. Now, a unified strategy synthesises existing knowledge, including methods like noise extrapolation and circuit design, for use even with emerging logical qubits improving computational accuracy during this transition. This review examines adapting these techniques across all stages, optimising every layer of control as systems scale.
The drive towards more reliable quantum computation is yielding new strategies for tackling errors inherent in current systems. A unified approach details viewing error suppression, mitigation, and correction not as separate techniques but as complementary layers working together during the transition from noisy intermediate-scale quantum (NISQ) processors to early fault-tolerant machines. Strategies are being refined for building dependable quantum computers by integrating techniques designed to tackle errors rather than treating them separately. This review details how minimising initial mistakes, lessening unavoidable issues, and correcting remaining problems…
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