Permutation-invariant constant-excitation quantum codes for amplitude damping
arXiv:1809.09801 · doi:10.1109/TIT.2019.2956142
Abstract
The increasing interest in using quantum error correcting codes in practical devices has heightened the need for designing quantum error correcting codes that can correct against specialized errors, such as that of amplitude damping errors which model photon loss. Although considerable research has been devoted to quantum error correcting codes for amplitude damping, not so much attention has been paid to having these codes simultaneously lie within the decoherence free subspace of their underlying physical system. One common physical system comprises of quantum harmonic oscillators, and constant-excitation quantum codes can be naturally stabilized within them. The purpose of this paper is to give constant-excitation quantum codes that not only correct amplitude damping errors, but are also immune against permutations of their underlying modes. To construct such quantum codes, we use the nullspace of a specially constructed matrix based on integer partitions.
arXiv comment19 pages, 1 figure, 1 table. More examples, including a code for 5 AD errors using 30 excitations. An unproven claim in Corollary 5 is also removed, which slightly changes Equation (1.2)
References in corpus (20)
- Cavity quantum electrodynamics for superconducting electrical circuits: an architecture for quantum computation
- Coupling Superconducting Qubits via a Cavity Bus
- Microwave photonics with superconducting quantum circuits
- Macroscopically distinct quantum superposition states as a bosonic code for amplitude damping
- New class of quantum error-correcting codes for a bosonic mode
- Approximate quantum error correction can lead to better codes
- Bosonic Quantum Codes for Amplitude Damping
- Cat codes with optimal decoherence suppression for a lossy bosonic channel
- Permutation-invariant quantum codes
- Quantum error correction against photon loss using NOON states
- An Introduction to Quantum Error Correction
- Quantum Error-Correcting Codes for Qudit Amplitude Damping
- Protecting an optical qubit against photon loss
- Pauli Exchange Errors in Quantum Computation
- Permutation-invariant qudit codes from polynomials
- Permutation-invariant codes encoding more than one qubit
- Towards Robust Quantum Computation
- Multi-Error-Correcting Amplitude Damping Codes
- Universal Uhrig dynamical decoupling for bosonic systems
- Concatenated Codes for Amplitude Damping
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- Quantum information processing with bosonic qubits in circuit QED
- Towards Scalable Bosonic Quantum Error Correction
- Tight bounds on the simultaneous estimation of incompatible parameters
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- Permutation-invariant quantum coding for quantum deletion channels
- Permutation-Invariant Quantum Codes for Deletion Errors
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- Faster quantum computation with permutations and resonant couplings
- Noise-adapted qudit codes for amplitude-damping noise
- Trade-offs on number and phase shift resilience in bosonic quantum codes
- Robust quantum metrology with explicit symmetric states
- Linear programming bounds for quantum channels acting on quantum error-correcting codes
- Constructing quantum codes from any classical code and their embedding in ground space of local Hamiltonians
- Robust projective measurements through measuring code-inspired observables
- Describing quantum metrology with erasure errors using weight distributions of classical codes
- Smallest quantum codes for amplitude damping noise
- Measurement-free code-switching for low overhead quantum computation using permutation invariant codes
- The equivalence between correctability of deletions and insertions of separable states in quantum codes
- Quantum error correction beyond : spin, bosonic, and permutation-invariant codes from convex geometry
- The Cramér-Rao approach and global quantum estimation of bosonic states