Researchers have successfully implemented compact gate-native circuits on quantum hardware to benchmark composite quantum gates with chiral-interference circuits. This breakthrough involves simulating state-transfer interference underlying three- and four-level chiral-resolution protocols using a two-qubit register. The four-level circuit utilizes a conditional-phase operation to simulate the enantiomer-dependent sign of one of the couplings, while the three-level circuit relies on the sign of a final rotation. These advancements have significant implications for quantum computing developments, which are redefining the boundaries of computation and cryptography1. The experimental implementation of these circuits demonstrates a crucial step towards phase-sensitive benchmarking of quantum gates, a vital component in the development of reliable quantum computing systems. This matters to practitioners because it brings us closer to realizing the full potential of quantum computing, potentially rendering certain cryptographic systems obsolete, so what this means for cybersecurity specialists is that they must reassess their encryption methods to stay ahead of the quantum computing curve.