2022
DOI: 10.1016/j.phycom.2022.101651
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Efficient iterative massive MIMO detection using Chebyshev acceleration

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Cited by 6 publications
(8 citation statements)
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“…The throughput and intricacy of the suggested technique are equal to those of the current methods in Ref. [ 18 ] based on the BER and number of convolutions. The results demonstrated that the recommended approach significantly lowers the computational complexity while providing the required performance with a constrained number of repeats.…”
Section: Related Workmentioning
confidence: 93%
“…The throughput and intricacy of the suggested technique are equal to those of the current methods in Ref. [ 18 ] based on the BER and number of convolutions. The results demonstrated that the recommended approach significantly lowers the computational complexity while providing the required performance with a constrained number of repeats.…”
Section: Related Workmentioning
confidence: 93%
“…According to random matrix theory [6], the spectral radius of B$\mathbf {B}$ is given by ρfalse(boldBfalse)=maxfalse|λfalse(boldBfalse)false|,\begin{equation} \rho (\mathbf {B})=\max |\lambda (\mathbf {B})|, \end{equation}where λfalse(boldBfalse)$\lambda (\mathbf {B})$ donates the eigenvalue of matrix B$\mathbf {B}$. The spectral radius of W$\mathbf {W}$ [2] and the largest and smallest eigenvalues of W$\mathbf {W}$ can be approximated as ρfalse(boldWfalse)=|λmaxfalse(boldWfalse)|=N1+ξ2,\begin{equation} \rho (\mathbf {W})=|\lambda _{\text{max}}(\mathbf {W})|=N {\left(1+\sqrt {\xi } \right)}^{2}, \end{equation} ρfalse(boldWfalse)=|λminfalse(boldWfalse)|=N1ξ2,\begin{equation} \rho (\mathbf {W})=|\lambda _{\text{min}}(\mathbf {W})|=N {\left(1-\sqrt {\xi } \right)}^{2}, \end{equation}where ξ=N/K$\xi =N/K$ is the ratio between the number of antennas and the number of users. The optimal iteration polynomials pm(z)…”
Section: Proposed Methodsmentioning
confidence: 99%
“…Introduction: Massive MIMO is a key technology for fifth-generation (5G) communication systems to achieve higher data rate, lower latency, higher reliability, and more connected users [1,2]. Despite all of its advantages, massive MIMO requires complex transceiver signal processing.…”
mentioning
confidence: 99%
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“…While iterative methods can be attractive due to their simplicity, the convergence rate can be further improved through the Chebyshev acceleration [25]. Recent studies have applied the Chebyshev acceleration technique to improve the convergence rates of iterative methods in massive MIMO detection [26], [27].…”
Section: Introductionmentioning
confidence: 99%