Abstract
For one-dimensional (1-D) sequences, many lower bounds on the maximum cross-correlations have been demonstrated. For example, bounds proposed by Welch, Levenstein, Liu et al., and others are the lower bounds on the maximum cross-correlations of aperiodic 1-D sequence sets or quasi-complementary sequence sets (QCSSs). However, in recent times, two-dimensional (2-D) arrays have emerged with promising applications in wireless communication, such as ultra wide-band (UWB), 2-D synchronization, massive multiple-input multiple-output (MIMO), 2-D multi-carrier code division multiple access (2D-MC-CDMA), etc. Although the construction of a 2-D quasi-complementary array set (QCAS) exists in literature, the lower bound on the maximum cross-correlation \(\delta _{max}\) of such a 2-D QCAS has not been reported previously. In this paper, we propose, for the first time lower bounds on the maximum cross-correlations of 2-D QCASs for both periodic and aperiodic cases. The existing lower bounds on the maximum cross-correlations of 1-D QCSSs and 1-D sequence sets can be deduced from the proposed lower bounds on the maximum cross-correlations of 2-D QCASs and 2-D array sets for certain cases.
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Acknowledgements
The authors would like to thank the financial supports for this work. The work of Abhishek Roy was supported in parts by the Senior Research Fellowship of CSIR-HRDG, Govt. of India with file number 09/1023(0025)/2018-EMR-I, and the work of Sudhan Majhi was supported by the MATRICS project under SERB, Govt. of India with file number MTR/2020/000238(Ver-1) and the EEQ project under SERB, Govt. of India with file number EEQ/2018/000201.
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Roy, A., Majhi, S. Lower bounds on the maximum cross-correlations of 2-D quasi-complementary array sets. Cryptogr. Commun. 16, 229–247 (2024). https://doi.org/10.1007/s12095-023-00665-z
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DOI: https://doi.org/10.1007/s12095-023-00665-z
Keywords
- Two-dimensional (2-D)
- Correlation
- Lower bound
- Welch bound
- Quasi-complementary array set (QCAS)
- 2-D multi-carrier code division multiple access (2D-MC-CDMA)