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Loading...Introduction to Quantum Circuit Synthesis
Last quarter, our team discovered that optimizing quantum circuits is crucial for large-scale quantum computing applications. We were working on a project that involved simulating complex quantum systems, and we realized that the default circuit synthesis techniques were not efficient enough. This led us to explore different circuit optimization techniques using Q# and Amazon Braket.
The Problem with Default Circuit Synthesis
When we first started using Q#, we noticed that the default circuit synthesis technique was not optimized for our specific use case. The circuits generated were large and had many redundant operations, which resulted in longer simulation times and higher error rates. We tried to optimize the circuits manually, but it was a time-consuming and tedious process.
Q# Circuit Optimization Techniques
We started by exploring the different circuit optimization techniques available in Q#.
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