Optimal Measurement of Field Properties with Quantum Sensor Networks
arXiv:2011.01259 · doi:10.1103/PhysRevA.103.L030601
Abstract
We consider a quantum sensor network of qubit sensors coupled to a field analytically parameterized by the vector of parameters . The qubit sensors are fixed at positions . While the functional form of is known, the parameters are not. We derive saturable bounds on the precision of measuring an arbitrary analytic function of these parameters and construct the optimal protocols that achieve these bounds. Our results are obtained from a combination of techniques from quantum information theory and duality theorems for linear programming. They can be applied to many problems, including optimal placement of quantum sensors, field interpolation, and the measurement of functionals of parametrized fields.
arXiv comment15 pages, 1 figure
References in corpus (35)
- On the Improvement of Frequency Stardards with Quantum Entanglement
- Entanglement, Non-linear Dynamics, and the Heisenberg Limit
- Generalized uncertainty relations: Theory, examples, and Lorentz invariance
- Multipartite entanglement and high precision metrology
- Generalized Limits for Single-Parameter Quantum Estimation
- Quantum Enhanced Multiple Phase Estimation
- Distributed quantum sensing in a continuous variable entangled network
- Multi-parameter estimation in networked quantum sensors
- Compatibility in Multiparameter Quantum Metrology
- Quantum enhanced estimation of a multi-dimensional field
- A Geometric Perspective on Quantum Parameter Estimation
- Distributed Quantum Sensing Using Continuous-Variable Multipartite Entanglement
- Distributed Quantum Metrology and the Entangling Power of Linear Networks
- Optimal and Secure Measurement Protocols for Quantum Sensor Networks
- Sensitivity Bounds for Multiparameter Quantum Metrology
- Optimal estimation of joint parameters in phase space
- Entanglement and sensitivity in precision measurements with states of a fluctuating number of particles
- Evaluating the Holevo Cramér-Rao bound for multi-parameter quantum metrology
- Quantum interferometry with three-dimensional geometry
- Quantum-enhanced metrology for multiple phase estimation with noise
- Quantum Semiparametric Estimation
- Bounds on Quantum Multiple-Parameter Estimation with Gaussian State
- Heisenberg-Scaling Measurement Protocol for Analytic Functions with Quantum Sensor Networks
- Distributed quantum sensing enhanced by continuous-variable error correction
- Quantum Metrology with Dicke Squeezed States
- Optimal Distributed quantum sensing using Gaussian states
- Faster Dynamic Matrix Inverse for Faster LPs
- Quantum sensing networks for the estimation of linear functions
- Optimal distributed sensing in noisy environments
- The role of entanglement in calibrating optical quantum gyroscopes
- Distributed Quantum Metrology with a Single Squeezed-Vacuum Source
- Quantum target detection using entangled photons
- Quantum metrology of spatial deformation using arrays of classical and quantum light emitters
- Quantum enhanced spectroscopy with entangled multi-photon states
- Networked quantum sensing
Cited by in corpus (16)
- Advances in Space Quantum Communications
- Distributing Multipartite Entanglement over Noisy Quantum Networks
- High-rate intercity quantum key distribution with a semiconductor single-photon source
- Correlation engineering via non-local dissipation
- Protocols for estimating multiple functions with quantum sensor networks: geometry and performance
- Approximate decoherence free subspaces for distributed sensing
- Distributed quantum phase sensing for arbitrary positive and negative weights
- Private and Robust States for Distributed Quantum Sensing
- Optimizing Initial State of Detector Sensors in Quantum Sensor Networks
- Minimum Entanglement Protocols for Function Estimation
- Optimal distributed multiparameter estimation in noisy environments
- Simple loss-tolerant protocol for GHZ-state distribution in a quantum network
- Optimal function estimation with photonic quantum sensor networks
- Quantum Advantage in Distributed Sensing with Noisy Quantum Networks
- Device-Independent Certification of Multipartite Distillable Entanglement
- Selective and noise-resilient wave estimation with quantum sensor networks