A case for amplify-forward relaying in the block-fading multiple-access channel

IEEE Transactions on Information Theory

Volumn 54, Issue 8, 2008, Pages 3728-3733

  Chen, Deqiang ^a   Azarian, Kambiz ^a,b   Laneman, J Nicholas ^a  

^a University of Notre Dame   (United States)

^b QUALCOMM INC   (United States)

Author keywords

Additive noise; Amplify 2013; Antennas; AWGN; Bandwidth; Base stations; Biological system modeling; block fading channel; Books; Capacity planning; Color; Communication networks; Complexity theory; Conferences; cooperative diversity; Correlation; Decoding; Delay; diversity x2013 multiplexing tradeoff (DMT); Economics; Electrical engineering; Encoding; Error probability; Fading; Gain; Indexes; Information theory; Interference; Machinery; Materials; Maximum likelihood decoding; Mobile communication; multiple access relay channel (MARK); Multiplexing; Object recognition; Optical fiber communication; Optimization; Protocols; Random variables; Rayleigh channels; Receiving antennas; Relays; Resource management; Service oriented architecture; Shift registers; Signal processing; Signal processing algorithms; Signal to noise ratio; Simulation; Source coding; Synchronization; Topology; Transmitters; Transmitting antennas; Upper bound; Wireless communication; wireless networks

Indexed keywords

ADDITIVE NOISE; ANTENNAS; AWGN; BANDWIDTH; BASE STATIONS; BIOLOGICAL SYSTEM MODELING; BLOCK-FADING; BOOKS; CAPACITY PLANNING; COLOR; COMMUNICATION NETWORKS; COMPLEXITY THEORY; CONFERENCES; CORRELATION; DECODING; DELAY; DYNAMIC DECODE; ECONOMICS; ELECTRICAL ENGINEERING; ENCODING; ERROR PROBABILITY; FADING; FADING ENVIRONMENTS; FORWARD RELAYING; GAIN; INFORMATION THEORY; INTERFERENCE; LOW-COMPLEXITY; MACHINERY; MATERIALS; MAXIMUM LIKELIHOOD DECODING; MOBILE COMMUNICATION; MULTIPLE ACCESSING; MULTIPLE-ACCESS CHANNEL; MULTIPLE-INPUT SINGLE-OUTPUT; MULTIPLEXING GAINS; OBJECT RECOGNITION; OPTICAL FIBER COMMUNICATION; OPTIMAL DIVERSITY; OPTIMIZATION; PROTOCOLS; RANDOM VARIABLES; RAYLEIGH CHANNELS; RECEIVING ANTENNAS; RELAYS; RESOURCE MANAGEMENT; SERVICE ORIENTED ARCHITECTURE; SHIFT REGISTERS; SIGNAL PROCESSING; SIGNAL PROCESSING ALGORITHMS; SIGNAL TO NOISE RATIO; SIMULATION; SOURCE CODING; SYNCHRONIZATION; TOPOLOGY; TRANSMITTERS; TRANSMITTING ANTENNAS; UPPER BOUND; WIRELESS COMMUNICATION;

AMPLIFICATION; CHLORINE COMPOUNDS; COMMUNICATION CHANNELS (INFORMATION THEORY); COMPUTER SYSTEM RECOVERY; DILATOMETERS; LAWS AND LEGISLATION; TELECOMMUNICATION; WIRELESS TELECOMMUNICATION SYSTEMS;

MULTIPLEXING;

EID: 48849116305     PISSN: 00189448     EISSN: None     Source Type: Journal    
DOI: 10.1109/TIT.2008.926336     Document Type: Article

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