A dynamic variational quantum sensing method using online conformal inference controls the long-term estimation loss at a user-specified level while updating circuit and estimator parameters.
Conformal Calibration: Ensuring the Reliability of Black-Box AI in Wireless Systems
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abstract
AI is poised to revolutionize telecommunication networks by boosting efficiency, automation, and decision-making. However, the black-box nature of most AI models introduces substantial risk, possibly deterring adoption by network operators. These risks are not addressed by the current prevailing deployment strategy, which typically follows a best-effort train-and-deploy paradigm. This paper reviews conformal calibration, a general framework that moves beyond the state of the art by adopting computationally lightweight, advanced statistical tools that offer formal reliability guarantees without requiring further training or fine-tuning. Conformal calibration encompasses pre-deployment calibration via uncertainty quantification or hyperparameter selection; online monitoring to detect and mitigate failures in real time; and counterfactual post-deployment performance analysis to address "what if" diagnostic questions after deployment. By weaving conformal calibration into the AI model lifecycle, network operators can establish confidence in black-box AI models as a dependable enabling technology for wireless systems.
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Dynamic Estimation Loss Control in Variational Quantum Sensing via Online Conformal Inference
A dynamic variational quantum sensing method using online conformal inference controls the long-term estimation loss at a user-specified level while updating circuit and estimator parameters.