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arXiv:1608.06674 · Quantum Information Processing

New quantum codes from dual-containing cyclic codes over finite rings

Yongsheng Tang, Shixin Zhu, Xiaoshan Kai, Jian Ding

Published Aug 22, 2016• 24 citations
arXivHTMLPDF
DOI
10.1007/s11128-016-1426-5

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For a prime p and a positive integer e, let$\mathbb {F}_{p^{e}}$be the finite field of order$p^{e}$and$\mathfrak {R}_{\ell } $be a non-chain ring given by$\mathfrak {R}_{\ell } :=\mathbb {F}_{p^{e}}[v]/\langle v^{\ell } -1\rangle,~\ell \gt 1$. This study presents the$(\theta _{1},\delta _{1},\beta _{1})$-cyclic codes over$\mathfrak {R}_{\ell } $and$(\theta _{i},\delta _{i},\beta _{i})$-cyclic codes over$\mathbb {F}_{p^{e}}\mathfrak {R}_{\ell } $for$i=0,1$. Further, we study the application of these codes in the construction of quantum codes. Towards this, we define a Gray map to find images of the elements of$\mathfrak {R}_{\ell } $and$\mathbb {F}_{p^{e}}\mathfrak {R}_{\ell } $over the copies of$\mathbb {F}_{p^{e}}$, and then establish the dual-containing conditions for these codes. Finally, using the CSS construction and a propagation rule, we find many non-binary quantum and classical codes with better parameters.

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Encoding and Construction of Quantum Codes from (γ,Δ)(γ,Δ)(γ,Δ)-cyclic Codes over a Class of Non-chain Rings
Let Fq\mathbb{F}_qFq​ be a finite field of q=pmq=p^mq=pm elements where ppp is a prime and mmm is a positive integer. This paper considers (γ,Δ)(γ,Δ)(γ,Δ)-cyclic codes over a class of finite non-chain commutative rings Rq,s=Fq[v1,v2,…,vs]/⟨vi−vi2,vivj=vjvi=0⟩\mathscr{R}_{q,s}=\mathbb{F}_q[v_1,v_2,\dots,v_s]/\langle v_i-v_i^2,v_iv_j=v_jv_i=0\rangleRq,s​=Fq​[v1​,v2​,…,vs​]/⟨vi​−vi2​,vi​vj​=vj​vi​=0⟩ where γγγ is an automorphism of Rq,s\mathscr{R}_{q,s}Rq,s​, ΔΔΔ is a γγγ-derivation of Rq,s\mathscr{R}_{q,s}Rq,s​ and 1≤i≠j≤s1\leq i\neq j\leq s1≤i=j≤s for a positive integer sss. Here, we show that a (γ,Δ)(γ,Δ)(γ,Δ)-cyclic code of length nnn over Rq,s\mathscr{R}_{q,s}Rq,s​ is the direct sum of (θ,ℑ)(θ,\Im)(θ,ℑ)-cyclic codes of length nnn over Fq\mathbb{F}_qFq​, where θθθ is an automorphism of Fq\mathbb{F}_qFq​ and ℑ\Imℑ is a θθθ-derivation of Fq\mathbb{F}_qFq​. Further, necessary and sufficient conditions for both (γ,Δ)(γ,Δ)(γ,Δ)-cyclic and (θ,ℑ)(θ,\Im)(θ,ℑ)-cyclic codes to contain their Euclidean duals are established. Then, we obtain many quantum codes by applying the dual containing criterion on the Gray images of these codes. These codes have better parameters than those available in the literature. Finally, the encoding and error-correction procedures for our proposed quantum codes are discussed.
For a prime p and a positive integer e, letFpe\mathbb {F}_{p^{e}}Fpe​be the finite field of orderpep^{e}peand$\mathfrak {R}_{\ell } beanon−chainringgivenbybe a non-chain ring given bybeanon−chainringgivenby\mathfrak {R}_{\ell } :=\mathbb {F}_{p^{e}}[v]/\langle v^{\ell } -1\rangle,~\ell \gt 1.Thisstudypresentsthe. This study presents the.Thisstudypresentsthe(\theta _{1},\delta _{1},\beta _{1})−cycliccodesover-cyclic codes over−cycliccodesover\mathfrak {R}_{\ell } andandand(\theta _{i},\delta _{i},\beta _{i})−cycliccodesover-cyclic codes over−cycliccodesover\mathbb {F}_{p^{e}}\mathfrak {R}_{\ell } forforfori=0,1.Further,westudytheapplicationofthesecodesintheconstructionofquantumcodes.Towardsthis,wedefineaGraymaptofindimagesoftheelementsof. Further, we study the application of these codes in the construction of quantum codes. Towards this, we define a Gray map to find images of the elements of.Further,westudytheapplicationofthesecodesintheconstructionofquantumcodes.Towardsthis,wedefineaGraymaptofindimagesoftheelementsof\mathfrak {R}_{\ell } andandand\mathbb {F}_{p^{e}}\mathfrak {R}_{\ell } overthecopiesofover the copies ofoverthecopiesof\mathbb {F}_{p^{e}}$, and then establish the dual-containing conditions for these codes. Finally, using the CSS construction and a propagation rule, we find many non-binary quantum and classical codes with better parameters.