Implementation of a general single-qubit positive operator-valued measure on a circuit-based quantum computer
arXiv:2001.04749 · doi:10.1103/PhysRevA.100.062317
Abstract
We derive a deterministic protocol to implement a general single-qubit POVM on near-term circuit-based quantum computers. The protocol has a modular structure, such that an -element POVM is implemented as a sequence of circuit modules. Each module performs a -element POVM. Two variations of the protocol are suggested, one optimal in terms of number of ancilla qubits, the other optimal in terms of number of qubit gate operations and quantum circuit depth. We use the protocol to implement - and -element POVMs on two publicly available quantum computing devices. The results we obtain suggest that implementing non-trivial POVMs could be within the reach of the current noisy quantum computing devices.
arXiv comment7 pages, 4 figures
References in corpus (15)
- Quantum Computing in the NISQ era and beyond
- Elementary gates for quantum computation
- Two-Bit Gates are Universal for Quantum Computation
- Simulating positive-operator-valued measures with projective measurements
- Classical and quantum communication without a shared reference frame
- Optimal distinction between non-orthogonal quantum states
- Realization of single-qubit positive operator-valued measurement via a one-dimensional photonic quantum walk
- Quantum multimeters: A programmable state discriminator
- Device-Independent Quantum Key Distribution with Local Bell Test
- General implementation of all possible positive-operator-value measurements of single photon polarization states
- Optimal quantum tomography for states, measurements, and transformations
- Simulating all quantum measurements using only projective measurements and postselection
- All possible bipartite positive-operator-value measurements of two-photon polarization states
- Optimal quantum-state tomography with known parameters
- Protocol for Fermionic Positive-Operator-Valued Measures
Cited by in corpus (13)
- Efficient quantum circuits for quantum computational chemistry
- Variational quantum state discriminator for supervised machine learning
- Noise-adapted recovery circuits for quantum error correction
- High-fidelity, multi-qubit generalized measurements with dynamic circuits
- Quantum Sensor Network Algorithms for Transmitter Localization
- Implementation of discrete positive operator valued measures on linear optical systems using cosine-sine decomposition
- Simulation of positive operator-valued measures and quantum instruments via quantum state preparation algorithms
- Encoding qubits into harmonic-oscillator modes via quantum walks in phase space
- Scalable quantum measurement error mitigation via conditional independence and transfer learning
- Optimal Single Qubit Tomography: Realization of Locally Optimal Measurements on a Quantum Computer
- General measurements with limited resources and their application to quantum unambiguous state discrimination
- Binary Quantum Control Optimization with Uncertain Hamiltonians
- Projective measurements under qubit quantum channels