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Lajos Hanzo

Researcher at University of Southampton

Publications -  2188
Citations -  69620

Lajos Hanzo is an academic researcher from University of Southampton. The author has contributed to research in topics: Bit error rate & MIMO. The author has an hindex of 101, co-authored 2040 publications receiving 54380 citations. Previous affiliations of Lajos Hanzo include University of New South Wales & Beihang University.

Papers
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Decomposition Optimization Algorithms for Distributed Radar Systems

TL;DR: The total transmitted power is minimized at a given mean-square target-estimation error and the optimality condition decomposition (OCD)-based and alternating direction method of multipliers (ADMM)-based algorithms are derived.
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Social Networking and Caching Aided Collaborative Computing for the Internet of Things

TL;DR: By exploiting the benefits of social networking, the burdens imposed on wireless networks by the IoT applications can be mitigated by the proposed caching assisted collaborative computing IoT framework.
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A Quantum-Search-Aided Dynamic Programming Framework for Pareto Optimal Routing in Wireless Multihop Networks

TL;DR: A dynamic programming framework is devised and the so-called evolutionary quantum pareto optimization (EQPO) algorithm is proposed and it is demonstrated that the EQPO algorithm achieves a complexity reduction, which is at least an order of magnitude when compared to its predecessors, albeit at the cost of a modest heuristic accuracy reduction.
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Deep-Learning-Aided Joint Channel Estimation and Data Detection for Spatial Modulation

TL;DR: The proposed DeepSM outperforms the conventional model-based channel estimation and data detection for transmission over time-varying channels and is capable of performing well even in highly dynamic communication environments.
Proceedings ArticleDOI

Joint Optimization of Iterative Source and Channel Decoding Using Over-Complete Source-Mapping

TL;DR: The inherent redundancy in the encoded bit- stream is intentionally increased with the aid of over-complete mapping, and extrinsic information transfer charts are used for designing a suitable mapping of the source-coded bits to the modulated symbols, leading to an approximately 2dB signal-to-noise gain.