Understanding digital subscriber line technology
Understanding digital subscriber line technology
DSL Advances
The normalized-rate iterative algorithm: a practical dynamic spectrum management method for DSL
EURASIP Journal on Applied Signal Processing
Selective iterative waterfilling for digital subscriber lines
EURASIP Journal on Applied Signal Processing
Iterative power pricing for distributed spectrum coordination in DSL
IEEE Transactions on Communications
Optimal spectrum management of DSL with nonstrictly convex rate region
IEEE Transactions on Signal Processing
Autonomous Spectrum Balancing for Digital Subscriber Lines
IEEE Transactions on Signal Processing
Global Concave Minimization for Optimal Spectrum Balancing in Multi-User DSL Networks
IEEE Transactions on Signal Processing - Part I
Multiuser Spectrum Optimization for Discrete Multitone Systems With Asynchronous Crosstalk
IEEE Transactions on Signal Processing
Distributed Spectrum Management Algorithms for Multiuser DSL Networks
IEEE Transactions on Signal Processing - Part I
Dynamic spectrum management for next-generation DSL systems
IEEE Communications Magazine
Distributed multiuser power control for digital subscriber lines
IEEE Journal on Selected Areas in Communications
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Digital subscriber lines (DSLs) technology is vastly used for high-speed data transmission. Crosstalk is one of the main problems in DSL. The research community has done extensive work on how to optimize spectrum allocation across DSL frequencies and mitigate crosstalk, a subject that has been called dynamic spectrum management (DSM). This text presents a novel DSM solution, referred to as semiblind spectrum balancing (2SB). 2SB performs an optimization process with a virtual line, a fictitious line that represents to each user the damage it causes for all other users. With the aid of message exchanges between modems and a central agent, the method will adjust the virtual line's parameters so that it represents the real crosstalk scenario in the binder. In this paper, we provide the conditions for how such a situation can be achieved and show that it can do so with semicentralization, low complexity and limited crosstalk channel information--only the ratios between crosstalk channels are necessary. Performance is very close to optimal.