Capacity-approaching block-based transceivers with reduced redundancy
Digital Signal Processing
AsiaCSN '07 Proceedings of the Fourth IASTED Asian Conference on Communication Systems and Networks
MIMO transceivers with decision feedback and bit loading: theory and optimization
IEEE Transactions on Signal Processing
Constellation design for widely linear transceivers
EURASIP Journal on Advances in Signal Processing - Special issue on advanced equalization techniques for wireless communications
Optimal joint design of orthonormal real valued short time block code and linear transceiver
Digital Signal Processing
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The design of optimal DMT transceivers for distorted channel with colored noise has been of great interest. Of particular interest is the class of block based DMT, where the transmitter and the receiver consist of constant matrices. Two types of block- based DMT transceivers are considered: the DMT system with zero padding (ZP-DMT) and the DMT system with general prefix (GP-DMT). We derive the bit allocation formula. For a given channel and channel noise spectrum, we design the ISI-free optimal transceiver that minimizes the transmission power for a given transmission rate and probability of error. For both ZP-DMT and GP-DMT systems, the optimal ISI-free transceiver can be given in closed from. We will see that for both classes, the optimal transceiver has an orthogonal transmitter. Simulation shows that the optimal DMT system can achieve the same transmission rate and the same probability of error with a much lower transmission power compared with other existing DMT systems