Classical Access Structures of Ramp Secret Sharing Based on Quantum Stabilizer Codes
arXiv:1811.05217 · doi:10.1007/s11128-019-2503-3
Abstract
In this paper we consider to use the quantum stabilizer codes as secret sharing schemes for classical secrets. We give necessary and sufficient conditions for qualified and forbidden sets in terms of quantum stabilizers. Then we give a Gilbert-Varshamove-type sufficient condition for existence of secret sharing schemes with given parameters, and by using that sufficient condition, we show that roughly 19% of participants can be made forbidden independently of the size of classical secret, in particular when an -bit classical secret is shared among participants having 1-qubit share each. We also consider how much information is obtained by an intermediate set and express that amount of information in terms of quantum stabilizers. All the results are stated in terms of linear spaces over finite fields associated with the quantum stabilizers.
Publisher's Open Access PDF with copyright held by the author
References in corpus (8)
- Relative generalized Hamming weights of one-point algebraic geometric codes
- Non-Threshold Quantum Secret Sharing Schemes in the Graph State Formalism
- Generalized Semi-Quantum Secret Sharing Schemes
- Unitary Reconstruction of Secret for Stabilizer Based Quantum Secret Sharing
- Classical Access Structures of Ramp Secret Sharing Based on Quantum Stabilizer Codes
- Quantum Stabilizer Codes Can Realize Access Structures Impossible by Classical Secret Sharing
- Exploring Quantum Supremacy in Access Structures of Secret Sharing by Coding Theory
- An extension of Massey scheme for secret sharing
Cited by in corpus (5)
- Unified Approach to Secret Sharing and Symmetric Private Information Retrieval with Colluding Servers in Quantum Systems
- Classical Access Structures of Ramp Secret Sharing Based on Quantum Stabilizer Codes
- Advance sharing of quantum shares for classical secrets
- Quantum -locally recoverable codes
- Message Randomization and Strong Security in Quantum Stabilizer-Based Secret Sharing for Classical Secrets