On the Uncertainty Principle for Continuous Quantum Measurement
H. Miao
Abstract
H. Miao
Abstract
We revisit the Heisenberg uncertainty principle for continuous quantum measurement with the detector describable by linear response. When the detector is at the quantum limit with minimum uncertainty, the fluctuation and response of a single-input single-output detector are shown to be related via two equalities. We illustrate the result by applying it to an optomechanical device--a typical continuous measurement setup.
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We revisit the Heisenberg uncertainty principle for continuous quantum measurement with the detector describable by linear response. When the detector is at the quantum limit with minimum uncertainty, the fluctuation and response of a single-input single-output detector are shown to be related via two equalities. We illustrate the result by applying it to an optomechanical device--a typical continuous measurement setup.
Key concepts: Uncertainty principle, Quantum limit, Detector, Quantum measurement, Heisenberg limit, Limit (mathematics), Physics, Quantum