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Quantum Cyclic Codes Quantumexplainer

Quantum Cyclic Codes Quantumexplainer
Quantum Cyclic Codes Quantumexplainer

Quantum Cyclic Codes Quantumexplainer Quantum cyclic codes are a fundamental concept in quantum error correction, providing a structured framework for encoding and detecting errors in quantum information processing systems. As an application of our study, we provide a construction of quantum error correcting codes (qeccs) from cyclic codes of block length (r, s) over . we support our theoretical results with illustrative examples.

Quantum Cyclic Codes Quantumexplainer
Quantum Cyclic Codes Quantumexplainer

Quantum Cyclic Codes Quantumexplainer Cyclic codes, a class of linear codes, have gained attention due to their nice polynomial representation and easy encoding and decoding. A software package designed to solve computationally hard problems in algebra, number theory, geometry and combinatorics. This study presents the (θ1,δ1,β1) cyclic codes over rℓ and (θi,δi,βi) cyclic codes over fperℓ for i = 0, 1 . further, we study the application of these codes in the construction of quantum codes. In section 4, like section 3, we define the gray map and linear codes over f q p q. section 5 discusses the structural properties of cyclic codes over p, q, f q p q and describes quantum error correcting (qec) codes and their construction over f q p q.

Quantum Cyclic Codes Quantumexplainer
Quantum Cyclic Codes Quantumexplainer

Quantum Cyclic Codes Quantumexplainer This study presents the (θ1,δ1,β1) cyclic codes over rℓ and (θi,δi,βi) cyclic codes over fperℓ for i = 0, 1 . further, we study the application of these codes in the construction of quantum codes. In section 4, like section 3, we define the gray map and linear codes over f q p q. section 5 discusses the structural properties of cyclic codes over p, q, f q p q and describes quantum error correcting (qec) codes and their construction over f q p q. In this section, some new quantum codes with better parameters than the known ones are derived from cyclic mds codes and constacyclic mds codes over fq2m, respectively. Motivated by the above study, in this paper, we describe cyclic codes, new quantum error correcting (qec) codes and several optimal codes over mixed alphabets. This paper presents an efficient decoding algorithm for quasi cyclic quantum low density parity check (qldpc) codes, correcting $\theta (n \log n)$ adversarial errors. the algorithm leverages the cyclic group symmetry of these codes and reduces decoding to classical expander based ldpc codes, avoiding the use of impractical inner codes. Based on the hermitian construction, the \ (\varvec {q^ {2}}\) ary images of these cyclic codes are employed to construct quantum codes. the quantum codes obtained by our technique have higher code rate than the currently known ones.

Quantum Cyclic Codes Quantumexplainer
Quantum Cyclic Codes Quantumexplainer

Quantum Cyclic Codes Quantumexplainer In this section, some new quantum codes with better parameters than the known ones are derived from cyclic mds codes and constacyclic mds codes over fq2m, respectively. Motivated by the above study, in this paper, we describe cyclic codes, new quantum error correcting (qec) codes and several optimal codes over mixed alphabets. This paper presents an efficient decoding algorithm for quasi cyclic quantum low density parity check (qldpc) codes, correcting $\theta (n \log n)$ adversarial errors. the algorithm leverages the cyclic group symmetry of these codes and reduces decoding to classical expander based ldpc codes, avoiding the use of impractical inner codes. Based on the hermitian construction, the \ (\varvec {q^ {2}}\) ary images of these cyclic codes are employed to construct quantum codes. the quantum codes obtained by our technique have higher code rate than the currently known ones.

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