Comparison of Theoretical and Real Throughput of PD-NOMA

Y. V. Kryukov; Крюков Я. В.; D. A. Pokamestov; Покаместов Д. А.; E. V. Rogozhnikov; Рогожников Е. В.

doi:10.31857/S0033849422120117

Comparison of Theoretical and Real Throughput of PD-NOMA

Authors: Kryukov Y.V.¹, Pokamestov D.A.¹, Rogozhnikov E.V.¹
Affiliations:
1. Tomsk State University of Control Systems and Radioelectronics
Issue: Vol 68, No 1 (2023)
Pages: 95-102
Section: НОВЫЕ РАДИОЭЛЕКТРОННЫЕ СИСТЕМЫ И ЭЛЕМЕНТЫ
URL: https://kazanmedjournal.ru/0033-8494/article/view/650621
DOI: https://doi.org/10.31857/S0033849422120117
EDN: https://elibrary.ru/CBRXRN
ID: 650621

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Abstract
About the authors
References
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Abstract

In this paper, we compare theoretical and real throughput in PD-NOMA systems. The theoretical throughput was obtained using ideal signal structures according to Shannon’s theorem while the practical one was obtained with allowance for the use of a bank of signal-code structures from the 3GPP LTE standard. An approach for estimating the real throughput of PD-NOMA is described. The error value between the theoretical and real throughput of PD-NOMA is determined.

Keywords

PD-NOMA systems, Shannon’s theorem, 3 GPP LTE standard

About the authors

Y. V. Kryukov

Tomsk State University of Control Systems and Radioelectronics

Email: kryukov.tusur@gmail.com
40 Lenina Prospect, Tomsk, 634034 Russia

D. A. Pokamestov

Tomsk State University of Control Systems and Radioelectronics

Email: kryukov.tusur@gmail.com
40 Lenina Prospect, Tomsk, 634034 Russia

E. V. Rogozhnikov

Tomsk State University of Control Systems and Radioelectronics

Author for correspondence.
Email: kryukov.tusur@gmail.com
40 Lenina Prospect, Tomsk, 634034 Russia

References

Cover T. // IEEE Trans. 1972. V. IF-18. № 1. P. 2.
Benjebbour A., Saito Y., Kishiyama Y. et al. // Proc. 2013 IEEE Int. Symp. on Intelligent Signal Processing and Communication Systems. Naha. 12–15 Nov. N.Y.: IEEE, 2013. P. 770.
Liu X., Wang J., Zhao N. et al. // IEEE Wireless Commun. Lett. 2019. V. 8. № 3. P. 965.
Zhang J., Tao X., Wu H. et al. // IEEE Internet of Things J. 2020. V. 7. № 7. P. 6369.
Ding Z., Schober R., Poor H. // IEEE Commun. Lett. 2020. V. 24. № 11. P. 2373.
Wang J., Li Y., Ji C. et al. // IEEE Trans. 2020. V. COM-68. № 4. P. 2293.
Dai L., Wang B., Ding Z. et al. // IEEE Commun. Surveys & Tutorials. 2018. V. 20. № 3. P. 2294.
Saito Y., Benjebbour A., Kishiyama Y., Nakamura T. // Proc. 2013 IEEE 24th Annual Int. Symp. on Personal, Indoor and Mobile Radio Commun. (PIMRC). London. 8–11 Sept. N.Y.: IEEE, 2013. P. 611.
Ding Z., Lei X., Karagiannidis K. et al. // IEEE J. Selected Areas Commun. 2017. V. 35. № 10. P. 2181.
Benjebbour A., Saito K., Li A. et al. // 2015 Int. Conf. on Wireless Networks and Mobile Commun.(WINCOM). Marrakesh. 20–23 Oct. N.Y.: IEEE, 2015. Article № 7381343.
Liu C.H., Liang D.C. // IEEE Trans. 2018. V. WC-17. № 5. P. 3524.
Higuchi K., Benjebbour A. // IEICE Trans. 2015. V. COM-98. № 3. P 403.
Kryukov Y., Pokamestov D., Abenov R. et al. // J. Phys: Conf. Series. 2021. V. 2134. № 1. P. 12023.
Abdel Moniem M., Gasser S., El-Mahallawy M. et al. // Applied Sciences. 2019. V. 9. № 15. P. 3022.
Kim S., Kim H., Hong D. // Proc. 2018 29th Annual Int. Symp. on Personal, Indoor and Mobile Radio Commun. (RIMRC). Bologna. 9–12 Sept. N.Y.: IEEE, 2018. Article № 8580995.
Hsieh H.-Y., Yang M.-J., Wang C.-H. // Proc. 2016 IEEE 27th Annual Int. Symp. on Personal, Indoor, and Mobile Radio Commun. (RIMRC). Valencia. 4–8 Sept. N.Y.: IEEE, 2016. Article № 7794796.