[1] M. Russell and G. L. Stuber, Interchannel interference analysis of
OFDM in a mobile environment, in 1995 IEEE 45th Vehicular Technology
Conference, IEEE 2 (1995), 820-824.
[2] J. C. Chuang, The effects of time delay spread on portable radio
communications channels with digital modulation, IEEE Journal on
Selected Areas in Communications 5(5) (1987), 879-889.
[3] J. Wang, H. Zhu and N. J. Gomes, Distributed antenna systems for
mobile communications in high speed trains, IEEE Journal on Selected
Areas in Communications 30(4) (2012), 675-683.
[4] E. Panayirci, H. Åženol and H. V. Poor, Joint channel estimation
equalization and data detection for OFDM systems in the presence of
very high mobility, IEEE Transactions on Signal Processing 58(8)
(2010), 4225-4238.
[5] Y. Mostofi and D. C. Cox, ICI mitigation for pilot-aided ofdm
mobile systems, IEEE Transactions on Wireless Communications 4(2)
(2005), 765-774.
[6] S. -W. Hou and C. C. Ko, Intercarrier interference suppression for
OFDM a uplink in time-and frequency-selective fading channels, IEEE
Transactions on Vehicular Technology 58(6) (2009), 2741-2754.
[7] N. Sun and J. Wu, Maximizing spectral efficiency for high mobility
systems with imperfect channel state information, IEEE Transactions on
Wireless Communications 13(3) (2014), 1462-1470.
[8] L. Xiong, Z. Zhong, B. Ai and J. Qian, Ergodic and outage capacity
for Ricean fading channel with shadow fading on high-speed railway, in
4th IET International Conference on Wireless, Mobile & Multimedia
Networks (ICWMMN 2011) 2011.
[9] A. M. Tulino, G. Caire, S. Shamai and S. Verdú, Capacity of
channels with frequency-selective and time-selective fading, IEEE
Transactions on Information Theory 56(3) (2010), 1187-1215.
[10] H. Bölcskei, D. Gesbert and A. J. Paulraj, On the capacity of
OFDM-based spatial multiplexing systems, IEEE Transactions on
Communications 50(2) (2002), 225-234.
[11] M. Torabi, S. Aissa and M. R. Soleymani, systems with imperfect
channel information: Capacity outage and BER performance, in IEEE
International Conference on Communications 2006. ICC’06.12 IEEE
(2006), 5342-5347.
[12] X. Ma, C. Liang, K. Huang and Q. Zhuang, Obtaining extra coding
gain for short codes by block Markov superposition transmission, in
IEEE International Symposium on Information Theory Proceedings (ISIT).
IEEE (2013), 2054-2058.
[13] Y. R. Zheng and C. Xiao, Simulation models with correct
statistical properties for Rayleigh fading channels, IEEE Transactions
on Communications 51(6) (2003), 920-928.
[14] Z. Dong, P. Fan, E. Panayirci and P. T. Mathiopoulos, Effect of
power and rate adaptation on the spectral efficiency of MQAM/OFDM
system under very fast fading channels, EURASIP Journal on Wireless
Communications and Networking 2012(1) (2012), 1-15.
[15] F. Hlawatsch and G. Matz, Wireless Communications Over Rapidly
Time-Varying Channels, Elsevier, 2011.
[16] X. Ma, C. Liang, K. Huang and Q. Zhuang, Block Markov
superposition transmission: Construction of big convolutional codes
from short codes, IEEE Transactions on Information Theory 61(6)
(2015), 3150-3163.
[17] X. Xu, C. Wang, Y. J. Zhu, X. Ma and X. Zhang, Block Markov
superposition transmission of short codes for indoor visible light
communications, IEEE Communications Letters 19(3) (2015), 359-362.