José Carmelo Interlando
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Previous Organizations / Institutes
The organizations / institutes from the scholar's other articles in the past ten years
José Carmelo Interlando has a total of 28 co-authors. Here are the top co-authors by number of shared publications:
- Antonio Aparecido de Andrade
Universidade Estadual Paulista "Julio de Mesquita Filho" - UNESP
8 shared publications - Reginaldo Palazzo
Departamento de Comunicações, Universidade Estadual de Campinas, Campinas, Brazil
7 shared publications - Cibele Cristina Trinca
Department of Biotechnology and Bioprocess Engineering, Federal University of Tocantins, Gurupi, Brazil
5 shared publications - Ricardo Augusto Watanabe
School of Mathematics, Statistics and Scientific Computing, Campinas State University, Campinas, Brazil
5 shared publications - Clarice Dias de Albuquerque
Universidade Federal do Cariri (UFCA)
3 shared publications - Agnaldo José Ferrari
Department of Mathematics, São Paulo State University, Bauru, Brazil
2 shared publications
Latest Publications
- Open Access
Characterization of $n$-Dimensional Toric and Burst-Error-Correcting Quantum Codes from Lattice Codes
Quantum error correction is essential for the development of any scalable quantum computer. In this work we introduce a generalization of a quantum interleaving method for combating clusters of errors in toric quantum error-correcting codes. We present new $n$-dimensional toric quantum codes, where $n\geq 5$, which are featured by lattice codes and apply the proposed quantum interleaving method to such new $n$-dimensional toric quantum codes. Through the application of this method to these novel $n$-dimensional toric quantum codes we derive new $n$-dimensional quantum burst-error-correcting codes. Consequently, $n$-dimensional toric quantum codes and burst-error-correcting quantum codes are provided offering both a good code rate and a significant coding gain when it comes to toric quantum codes. Another important consequence from the presented $n$-dimensional toric quantum codes is that if the Golomb and Welch conjecture in \cite{perfcodes} regarding the Lee sphere in $n$ dimensions for the respective close packings holds true, then it follows that these $n$-dimensional toric quantum codes are the only possible ones to be obtained from lattice codes. Moreover, such a methodology can be applied for burst error correction in cases involving localized errors, quantum data storage and quantum channels with memory.Open AccessCharacterization of $n$-Dimensional Toric and Burst-Error-Correcting Quantum Codes from Lattice Codes
Quantum error correction is essential for the development of any scalable quantum computer. In this work we introduce a generalization of a quantum interleaving method for combating clusters of errors in toric quantum error-correcting codes. We present new $n$-dimensional toric quantum codes, where $n\geq 5$, which are featured by lattice codes and apply the proposed quantum interleaving method to such new $n$-dimensional toric quantum codes. Through the application of this method to these novel $n$-dimensional toric quantum codes we derive new $n$-dimensional quantum burst-error-correcting codes. Consequently, $n$-dimensional toric quantum codes and burst-error-correcting quantum codes are provided offering both a good code rate and a significant coding gain when it comes to toric quantum codes. Another important consequence from the presented $n$-dimensional toric quantum codes is that if the Golomb and Welch conjecture in \cite{perfcodes} regarding the Lee sphere in $n$ dimensions for the respective close packings holds true, then it follows that these $n$-dimensional toric quantum codes are the only possible ones to be obtained from lattice codes. Moreover, such a methodology can be applied for burst error correction in cases involving localized errors, quantum data storage and quantum channels with memory. - 25 January 2024
- Published by Springer Nature in Quantum Information Processing
- Vol. 23 (2) , 1-19
New three- and four-dimensional toric and burst error-correcting quantum codes
- 25 January 2024
- Published by Springer Nature in Quantum Information Processing
- Vol. 23 (2) , 1-19
New three- and four-dimensional toric and burst error-correcting quantum codes
- Open Access
- 23 October 2023
- Published by iPeak Academy Ltd. in Journal of Algebra Combinatorics Discrete Structures and Applications
- Vol. 11 (2) , 73-81
Characterization of Totally Real Subfields of 2-Power Cyclotomic Fields and Applications to Signal Set Design
A classification of all totally real subfields K of cyclotomic field Q(zeta_{2^r}), for any r ≥ 4, and the fully-diverse related versions of the Z^n-lattice are presented along with closed-form expressions for their minimum product distance. Any totally real subfield K of Q(zeta_{2^r}) must be of the form K=Q(zeta_{2^2} + zeta_{2^2}^{-1}), where s = r − j for some 0 ≤ j ≤ r − 3. Signal constellations for transmitting information over both Gaussian and Rayleigh fading channels (which can be useful for mobile communications) can be carved out of those lattices.
- 23 October 2023
- Published by iPeak Academy Ltd. in Journal of Algebra Combinatorics Discrete Structures and Applications
- Vol. 11 (2) , 73-81
Open AccessCharacterization of Totally Real Subfields of 2-Power Cyclotomic Fields and Applications to Signal Set Design
A classification of all totally real subfields K of cyclotomic field Q(zeta_{2^r}), for any r ≥ 4, and the fully-diverse related versions of the Z^n-lattice are presented along with closed-form expressions for their minimum product distance. Any totally real subfield K of Q(zeta_{2^r}) must be of the form K=Q(zeta_{2^2} + zeta_{2^2}^{-1}), where s = r − j for some 0 ≤ j ≤ r − 3. Signal constellations for transmitting information over both Gaussian and Rayleigh fading channels (which can be useful for mobile communications) can be carved out of those lattices.
- Open Access
New Three and Four-Dimensional Toric and Burst-Error-Correcting Quantum Codes
Ongoing research and experiments have enabled quantum memory to realize the storage of qubits. On the other hand, interleaving techniques are used to deal with burst of errors. Effective interleaving techniques for combating burst of errors by using classical error-correcting codes have been proposed in several articles found in the literature, however, to the best of our knowledge, little is known regarding interleaving techniques for combating clusters of errors in topological quantum error-correcting codes. Motivated by that, in this work, we present new three and four-dimensional toric quantum codes which are featured by lattice codes and apply a quantum interleaving method to such new three and four-dimensional toric quantum codes. By applying such a method to these new codes we provide new three and four-dimensional quantum burst-error-correcting codes. As a consequence, new three and four-dimensional toric and burst-error-correcting quantum codes are obtained which have better information rates than those three and four-dimensional toric quantum codes from the literature. In addition to these proposed three and four-dimensional quantum burst-error-correcting codes improve such information rates, they can be used for burst-error-correction in errors which are located, quantum data stored and quantum channels with memory.
Open AccessNew Three and Four-Dimensional Toric and Burst-Error-Correcting Quantum Codes
Ongoing research and experiments have enabled quantum memory to realize the storage of qubits. On the other hand, interleaving techniques are used to deal with burst of errors. Effective interleaving techniques for combating burst of errors by using classical error-correcting codes have been proposed in several articles found in the literature, however, to the best of our knowledge, little is known regarding interleaving techniques for combating clusters of errors in topological quantum error-correcting codes. Motivated by that, in this work, we present new three and four-dimensional toric quantum codes which are featured by lattice codes and apply a quantum interleaving method to such new three and four-dimensional toric quantum codes. By applying such a method to these new codes we provide new three and four-dimensional quantum burst-error-correcting codes. As a consequence, new three and four-dimensional toric and burst-error-correcting quantum codes are obtained which have better information rates than those three and four-dimensional toric quantum codes from the literature. In addition to these proposed three and four-dimensional quantum burst-error-correcting codes improve such information rates, they can be used for burst-error-correction in errors which are located, quantum data stored and quantum channels with memory.
- 12 May 2023
- Published by Springer Nature in Quantum Information Processing
- Vol. 22 (5) , 1-25
On the construction of new toric quantum codes and quantum burst-error-correcting codes
- 12 May 2023
- Published by Springer Nature in Quantum Information Processing
- Vol. 22 (5) , 1-25
On the construction of new toric quantum codes and quantum burst-error-correcting codes
- Open Access
On the Construction of New Toric Quantum Codes and Quantum Burst-Error Correcting Codes
A toric quantum error-correcting code construction procedure is presented in this work. A new class of an infinite family of toric quantum codes is provided by constructing a classical cyclic code on the square lattice $\mathbb{Z}_{q}\times \mathbb{Z}_{q}$ for all odd integers $q\geq 5$ and, consequently, new toric quantum codes are constructed on such square lattices regardless of whether $q$ can be represented as a sum of two squares. Furthermore this work supplies for each $q$ the polyomino shapes that tessellate the corresponding square lattices and, consequently, tile the lattice $\mathbb{Z}^{2}$. The channel without memory to be considered for these constructed toric quantum codes is symmetric, since the $\mathbb{Z}^{2}$-lattice is autodual. Moreover, we propose a quantum interleaving technique by using the constructed toric quantum codes which shows that the code rate and the coding gain of the interleaved toric quantum codes are better than the code rate and the coding gain of Kitaev's toric quantum codes for $q=2n+1$, where $n\geq 2$, and of an infinite class of Bombin and Martin-Delgado's toric quantum codes. In addition to the proposed quantum interleaving technique improves such parameters, it can be used for burst-error correction in errors which are located, quantum data stored and quantum channels with memory.Open AccessOn the Construction of New Toric Quantum Codes and Quantum Burst-Error Correcting Codes
A toric quantum error-correcting code construction procedure is presented in this work. A new class of an infinite family of toric quantum codes is provided by constructing a classical cyclic code on the square lattice $\mathbb{Z}_{q}\times \mathbb{Z}_{q}$ for all odd integers $q\geq 5$ and, consequently, new toric quantum codes are constructed on such square lattices regardless of whether $q$ can be represented as a sum of two squares. Furthermore this work supplies for each $q$ the polyomino shapes that tessellate the corresponding square lattices and, consequently, tile the lattice $\mathbb{Z}^{2}$. The channel without memory to be considered for these constructed toric quantum codes is symmetric, since the $\mathbb{Z}^{2}$-lattice is autodual. Moreover, we propose a quantum interleaving technique by using the constructed toric quantum codes which shows that the code rate and the coding gain of the interleaved toric quantum codes are better than the code rate and the coding gain of Kitaev's toric quantum codes for $q=2n+1$, where $n\geq 2$, and of an infinite class of Bombin and Martin-Delgado's toric quantum codes. In addition to the proposed quantum interleaving technique improves such parameters, it can be used for burst-error correction in errors which are located, quantum data stored and quantum channels with memory. - 2 January 2022
- Published by Taru Publications in Journal of Discrete Mathematical Sciences and Cryptography
- Vol. 25 (1) , 83-95
On Fiber Characters of Fpm* and Related Polynomial Algebras
Let p be prime, m a positive integer( (m >= 1, and m >= 2 if p = 2), and chi(n) a multiplicative complex character on F-pm* with order n vertical bar (p(m)-1). We show that a partition {A(1),A(2),..., A(n)} of F-pm*( )is the partition by fibers of chi(n) if and only if these fibers satisfy certain additive properties. This is equivalent to showing that the set of multivariate characteristic polynomials of these fibers, completed with the constant polynomial 1, is the basis of an (n +1) -dimensional commutative algebra with identity in the ring Q[x(1),..., x(n)]/< x(1)(p)-1,...,x(n)(p)-1 >.
- 2 January 2022
- Published by Taru Publications in Journal of Discrete Mathematical Sciences and Cryptography
- Vol. 25 (1) , 83-95
On Fiber Characters of Fpm* and Related Polynomial Algebras
Let p be prime, m a positive integer( (m >= 1, and m >= 2 if p = 2), and chi(n) a multiplicative complex character on F-pm* with order n vertical bar (p(m)-1). We show that a partition {A(1),A(2),..., A(n)} of F-pm*( )is the partition by fibers of chi(n) if and only if these fibers satisfy certain additive properties. This is equivalent to showing that the set of multivariate characteristic polynomials of these fibers, completed with the constant polynomial 1, is the basis of an (n +1) -dimensional commutative algebra with identity in the ring Q[x(1),..., x(n)]/< x(1)(p)-1,...,x(n)(p)-1 >.
- 7 May 2020
- Published by Journal of Algebra Combinatorics Discrete Structures and Applications in Journal of Algebra Combinatorics Discrete Structures and Applications
- Vol. 7 (2) , 195-207
Generalization of the ball-collision algorithm
In this paper we generalize the ball-collision algorithm by Bernstein, Lange, Peters from the binary field to a general finite field. We also provide a complexity analysis and compare the asymptotic complexity to other generalized information set decoding algorithms.
- 7 May 2020
- Published by Journal of Algebra Combinatorics Discrete Structures and Applications in Journal of Algebra Combinatorics Discrete Structures and Applications
- Vol. 7 (2) , 195-207
Generalization of the ball-collision algorithm
In this paper we generalize the ball-collision algorithm by Bernstein, Lange, Peters from the binary field to a general finite field. We also provide a complexity analysis and compare the asymptotic complexity to other generalized information set decoding algorithms.
- 7 May 2020
- Published by Journal of Algebra Combinatorics Discrete Structures and Applications in Journal of Algebra Combinatorics Discrete Structures and Applications
- Vol. 7 (2) , 141-160
Trace forms of certain subfields of cyclotomic fields and applications
In this work, we present a explicit trace forms for maximal real subfields of cyclotomic fields as tools for constructing algebraic lattices in Euclidean space with optimal center density. We also obtain a closed formula for the Gram matrix of algebraic lattices obtained from these subfields. The obtained lattices are rotated versions of the lattices $ \Lambda_9, \Lambda_{10}$ and $\Lambda_{11}$ and they are images of $\mathbb{Z}$-submodules of rings of integers under the twisted homomorphism, and these constructions, as algebraic lattices, are new in the literature. We also obtain algebraic lattices in odd dimensions up to $7$ over real subfields, calculate their minimum product distance and compare with those known in literatura, since lattices constructed over real subfields have full diversity.- 7 May 2020
- Published by Journal of Algebra Combinatorics Discrete Structures and Applications in Journal of Algebra Combinatorics Discrete Structures and Applications
- Vol. 7 (2) , 141-160
Trace forms of certain subfields of cyclotomic fields and applications
In this work, we present a explicit trace forms for maximal real subfields of cyclotomic fields as tools for constructing algebraic lattices in Euclidean space with optimal center density. We also obtain a closed formula for the Gram matrix of algebraic lattices obtained from these subfields. The obtained lattices are rotated versions of the lattices $ \Lambda_9, \Lambda_{10}$ and $\Lambda_{11}$ and they are images of $\mathbb{Z}$-submodules of rings of integers under the twisted homomorphism, and these constructions, as algebraic lattices, are new in the literature. We also obtain algebraic lattices in odd dimensions up to $7$ over real subfields, calculate their minimum product distance and compare with those known in literatura, since lattices constructed over real subfields have full diversity.- Open Access
- 2 December 2019
- Published by Brazilian Society for Computational and Applied Mathematics (SBMAC) in TEMA (São Carlos)
- Vol. 20 (3) , 445
Rotated Z^n-Lattices via Real Subfields of Q(\zeta_2r)
A method for constructing rotated Z^n-lattices, with n a power of 2, based on totally real subfields of the cyclotomic field Q(\zeta_{2^r}), where r\geq 4 is an integer, is presented. Lattices exhibiting full diversity in some dimensions n not previously addressed are obtained.
- 2 December 2019
- Published by Brazilian Society for Computational and Applied Mathematics (SBMAC) in TEMA (São Carlos)
- Vol. 20 (3) , 445
Open AccessRotated Z^n-Lattices via Real Subfields of Q(\zeta_2r)
A method for constructing rotated Z^n-lattices, with n a power of 2, based on totally real subfields of the cyclotomic field Q(\zeta_{2^r}), where r\geq 4 is an integer, is presented. Lattices exhibiting full diversity in some dimensions n not previously addressed are obtained.