<![CDATA[ Wireless Communications, IEEE Transactions on - new TOC ]]> http://ieeexplore.ieee.org TOC Alert for Publication# 7693 2009 November 19 <![CDATA[IEEE Transactions on Wireless Communications - cover]]> 8 11 c1 c2 80 <![CDATA[Quantized beamforming with channel prediction - transactions letters]]> 8 11 5377 5382 315 <![CDATA[Delay versus energy consumption of the IEEE 802.16e sleep-mode mechanism]]> 8 11 5383 5387 226 <![CDATA[Space-frequency linear dispersion codes for single carrier-frequency domain equalization]]> 8 11 5388 5393 232 <![CDATA[Theoretical analysis of the orthogonality factor in WCDMA downlinks]]> 8 11 5394 5399 439 <![CDATA[Secure communications in local multipoint distribution service (LMDS) networks]]> 8 11 5400 5403 190 <![CDATA[Uplink capacity improvement through orthogonal code hopping in uplink-synchronized CDMA systems]]> 8 11 5404 5410 399 <![CDATA[Performances of EGC and MRC diversity for UWB PAPM systems in IEEE channel models]]> 8 11 5411 5415 234 <![CDATA[A cooperative multi-group priority MAC protocol for multi-packet reception channels]]> 8 11 5416 5421 371 <![CDATA[Amplify-and-Forward Relay Networks Under Received Power Constraint]]> 8 11 5422 5426 294 <![CDATA[Spectrum sensing in cognitive radio using goodness of fit testing]]> 8 11 5427 5430 193 <![CDATA[Simultaneous transmission of MAP IE and data for minimizing MAC overhead in the IEEE 802.16e OFDMA systems]]> 8 11 5431 5435 301 <![CDATA[Location-based pairwise key predistribution for wireless sensor networks]]> 8 11 5436 5442 400 <![CDATA[Some results for the fast MMSE-SIC detection in spatially multiplexed MIMO systems]]> H decomposition based algorithm with backward substitution (LDBABS), which is shown to require as many multiplications as two other most efficient algorithms. We then propose a modified LDBABS algorithm that utilizes the scheme of incomplete LDLH decomposition together with the initial ordering information. The modified LDBABS algorithm is shown to require averagely fewer multiplications than any other implementation algorithm under the independent identically distributed Rayleigh fading channel. It is known that the real-valued MMSE-SIC detector with optimal detection order outperforms its complex-valued counterpart by approximately 1 dB. We finally propose a fast algorithm for the real-valued MMSE-SIC detector with optimal detection order. The number of real-valued multiplications required by this fast algorithm is approximately 1.57 times that required by the complex-valued LDBABS algorithm.]]> 8 11 5443 5448 240 <![CDATA[Full-rate cooperative communications with spatial diversity for half-duplex uplink relay channels]]> 8 11 5449 5454 365 <![CDATA[Performance analysis of serial cooperative communications with decode-and-forward relaying and blind-EGC reception under nakagami fading channels]]> 8 11 5455 5460 254 <![CDATA[Interference-free code design for MC-CDMA uplink transmissions]]> 8 11 5461 5465 242 <![CDATA[How much time is needed for wideband spectrum sensing?]]> 8 11 5466 5471 353 <![CDATA[Theoretical analysis of a MAP based blind frame synchronizer]]> 8 11 5472 5476 321 <![CDATA[Effects of channel dispersion and path correlations on system-wide throughput in MIMO-based cellular systems]]> 8 11 5477 5482 403 <![CDATA[The non validity of the gaussian approximation for multi-user interference in ultra wide band impulse radio: from an inconvenience to an advantage - transactions papers]]> 8 11 5483 5489 841 <![CDATA[Minimum-energy all-to-all multicasting in wireless ad hoc networks]]> 8 11 5490 5499 596 <![CDATA[Near-capacity irregular variable length coding and irregular unity rate coding]]> b/N0 values that are closer to the channel¿s capacity bound. This is demonstrated for a serial concatenation of iteratively decoded Irregular Variable Length Coding (IrVLC) and Irregular Unity Rate Coding (IrURC), which is favourably compared with an IrVLC and regular Unity Rate Coding (URC) based benchmarker. Finally, we show that the iterative decoding complexity of our IrVLCIrURC scheme can be reduced by about 25% upon employing a method of jointly performing EXIT chart matching, while seeking a reduced iterative decoding complexity.]]> 8 11 5500 5507 305 <![CDATA[A cellular neural network and utility-based radio resource scheduler for multimedia CDMA communication systems]]> 8 11 5508 5519 602 <![CDATA[Energy optimal scheduler for diversity fading channels with maximum delay constraints]]> 8 11 5520 5529 422 <![CDATA[Design and analysis of asynchronous wakeup for wireless sensor networks]]> 8 11 5530 5541 633 <![CDATA[Three-dimensional multipath shape factors for spatial modeling of wireless channels]]> 8 11 5542 5551 1066 <![CDATA[Performance analysis of IR-UWB in a multi-user environment]]> 8 11 5552 5563 483 <![CDATA[An algorithm for wireless relay placement]]> 8 11 5564 5574 3569 <![CDATA[A low-overhead energy detection based cooperative sensing protocol for cognitive radio systems]]> 8 11 5575 5581 481 <![CDATA[A joint power control and interference avoidance code assignment strategy for downlink MC-DS-CDMA with 2D spreading]]> 8 11 5582 5591 443 <![CDATA[Reconfigurable rateless codes]]> 8 11 5592 5600 322 <![CDATA[A comprehensive analysis of low-power operation for beacon-enabled IEEE 802.15.4 wireless networks]]> 8 11 5601 5611 580 <![CDATA[Traffic adaptive relaying topology control]]> 8 11 5612 5620 566 <![CDATA[A multi-channel token ring protocol for QoS provisioning in inter-vehicle communications]]> 8 11 5621 5631 895 <![CDATA[Delay-sensitive distributed power and transmission threshold control for S-ALOHA network with finite state markov fading channels]]> 8 11 5632 5638 293 <![CDATA[On error analysis and distributed phase steering for wireless network coding over fading channels]]> 8 11 5639 5649 530 <![CDATA[Design and analysis of SIP-based mobile VPN for real-time applications]]> 8 11 5650 5661 553 <![CDATA[QoS-driven network coded wireless multicast]]> 8 11 5662 5670 443 <![CDATA[Robust transmit processing forBICM-OFDM systems]]> 8 11 5671 5681 485 <![CDATA[Dimensioning and location planning of broadband wireless networks under multi-level cooperative relaying]]> 8 11 5682 5691 1009 <![CDATA[Algorithms and bounds for estimating location, directionality, and environmental parameters of primary spectrum users]]> 8 11 5692 5701 499 <![CDATA[Opportunistic spectrum sharing with multiple cochannel primary transmitters]]> 8 11 5702 5710 463