
Ghosts in the Machine: Why “Orphan Qubits” Are Killing Your Circuits (And How to Fight Back)
“Poison qubits” contaminate measurements. Our H.O.T. Framework excludes their influence. The V5 Orphan Exclusion Test filters out bad shots.

“Poison qubits” contaminate measurements. Our H.O.T. Framework excludes their influence. The V5 Orphan Exclusion Test filters out bad shots.

Leveraging topological QC principles for NISQ circuit design, not logical qubits. #QuantumComputing

The quantum threat is real, *now*. Forget supremacy races; noisy NISQ hardware is already a risk. Our H.O.T. Framework tackles this.

Unitary contamination, not just gate errors, kills deep NISQ circuits. A “poison qubit ratio” >10% compromises computation.

“Orphan qubits” poison results. Not algorithms, but anomalous readouts. Filter measurements to exclude them.

Forget million-qubit dreams. Real wins are in **measurement hygiene** on NISQ hardware, not just QEC.

Quantum supremacy’s “breakthrough” often relies on classical post-processing. The real challenge: extracting meaningful results from noisy qubit outputs.

“Orphan qubits” aren’t noise; they’re signals of measurement contamination in your superposition circuits. Fight back with H.O.T. Framework.

Noise isn’t an error to fix, but a signal to leverage for near-term quantum advantage.

The quantum race isn’t just about supremacy; it’s a cryptographic reckoning. We’re extracting power from noisy NISQ devices, not waiting for fault tolerance.