4.6 Article

Resource allocation based on quantum particle swarm optimization and RBF neural network for overlay cognitive OFDM System

Journal

NEUROCOMPUTING
Volume 173, Issue -, Pages 1250-1256

Publisher

ELSEVIER
DOI: 10.1016/j.neucom.2015.08.083

Keywords

Hybrid quantum particle swarm optimization; Overlay cognitive OFDM system; Chance-constrained resource allocation; Radial basis function neural network

Funding

  1. National Natural Science Foundation of China [61301108, 61371169, 61272419, 61301103]
  2. Jiangsu Planned Projects for Postdoctoral Research Funds [1301024C]
  3. Postdoctoral Science Foundation of China [2013M541672]
  4. China Scholarship Council
  5. Prospective Study Project in Jiangsu Province in the Future Network [BY2013095-3-02]
  6. Jiangsu Province Research Prospective Project [BY2014089, BY2013039, BY2013037]
  7. Lianyungang International Cooperation Project [CH1304]
  8. Fundamental Research Funds for the Central Universities [30915011320]

Ask authors/readers for more resources

In this work, we study the energy-efficient resource allocation problem based on chance-constrained programming for overlay cognitive orthogonal frequency division multiplexing (OFDM) system. The objective function minimizes the total power consumption and the constraint conditions include the requirement of the system outage probability and the feasibility of the subcarrier allocation solution. In order to solve the above chance-constrained resource allocation problem, two steps are taken to develop hybrid quantum particle swarm optimization (HQPSO). In the first step, we define an uncertain function according to the outage probability constraint condition and utilize the radial basis function (BRF) neural network to computer it. In the second step, HQPSO which includes quantum particle swarm optimization (QPSO) and RBF neural network is proposed. Simulation results demonstrate that the total power consumption of HQPSO is smaller than that of other algorithms while the system outage probability could be satisfied very well. (C) 2015 Published by Elsevier B.V.

Authors

I am an author on this paper
Click your name to claim this paper and add it to your profile.

Reviews

Primary Rating

4.6
Not enough ratings

Secondary Ratings

Novelty
-
Significance
-
Scientific rigor
-
Rate this paper

Recommended

No Data Available
Article Computer Science, Artificial Intelligence

3D-KCPNet: Efficient 3DCNNs based on tensor mapping theory

Rui Lv, Dingheng Wang, Jiangbin Zheng, Zhao-Xu Yang

Summary: In this paper, the authors investigate tensor decomposition for neural network compression. They analyze the convergence and precision of tensor mapping theory, validate the rationality of tensor mapping and its superiority over traditional tensor approximation based on the Lottery Ticket Hypothesis. They propose an efficient method called 3D-KCPNet to compress 3D convolutional neural networks using the Kronecker canonical polyadic (KCP) tensor decomposition. Experimental results show that 3D-KCPNet achieves higher accuracy compared to the original baseline model and the corresponding tensor approximation model.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Personalized robotic control via constrained multi-objective reinforcement learning

Xiangkun He, Zhongxu Hu, Haohan Yang, Chen Lv

Summary: In this paper, a novel constrained multi-objective reinforcement learning algorithm is proposed for personalized end-to-end robotic control with continuous actions. The approach trains a single model using constraint design and a comprehensive index to achieve optimal policies based on user-specified preferences.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Overlapping community detection using expansion with contraction

Zhijian Zhuo, Bilian Chen, Shenbao Yu, Langcai Cao

Summary: In this paper, a novel method called Expansion with Contraction Method for Overlapping Community Detection (ECOCD) is proposed, which utilizes non-negative matrix factorization to obtain disjoint communities and applies expansion and contraction processes to adjust the degree of overlap. ECOCD is applicable to various networks with different properties and achieves high-quality overlapping community detection.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

High-compressed deepfake video detection with contrastive spatiotemporal distillation

Yizhe Zhu, Chunhui Zhang, Jialin Gao, Xin Sun, Zihan Rui, Xi Zhou

Summary: In this work, the authors propose a Contrastive Spatio-Temporal Distilling (CSTD) approach to improve the detection of high-compressed deepfake videos. The approach leverages spatial-frequency cues and temporal-contrastive alignment to fully exploit spatiotemporal inconsistency information.

NEUROCOMPUTING (2024)

Review Computer Science, Artificial Intelligence

A review of coverless steganography

Laijin Meng, Xinghao Jiang, Tanfeng Sun

Summary: This paper provides a review of coverless steganographic algorithms, including the development process, known contributions, and general issues in image and video algorithms. It also discusses the security of coverless steganography from theoretical analysis to actual investigation for the first time.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Confidence-based interactable neural-symbolic visual question answering

Yajie Bao, Tianwei Xing, Xun Chen

Summary: Visual question answering requires processing multi-modal information and effective reasoning. Neural-symbolic learning is a promising method, but current approaches lack uncertainty handling and can only provide a single answer. To address this, we propose a confidence based neural-symbolic approach that evaluates NN inferences and conducts reasoning based on confidence.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

A framework-based transformer and knowledge distillation for interior style classification

Anh H. Vo, Bao T. Nguyen

Summary: Interior style classification is an interesting problem with potential applications in both commercial and academic domains. This project proposes a method named ISC-DeIT, which combines data-efficient image transformer architectures and knowledge distillation, to address the interior style classification problem. Experimental results demonstrate a significant improvement in predictive accuracy compared to other state-of-the-art methods.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Improving robustness for vision transformer with a simple dynamic scanning augmentation

Shashank Kotyan, Danilo Vasconcellos Vargas

Summary: This article introduces a novel augmentation technique called Dynamic Scanning Augmentation to improve the accuracy and robustness of Vision Transformer (ViT). The technique leverages dynamic input sequences to adaptively focus on different patches, resulting in significant changes in ViT's attention mechanism. Experimental results demonstrate that Dynamic Scanning Augmentation outperforms ViT in terms of both robustness to adversarial attacks and accuracy against natural images.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Introducing shape priors in Siamese networks for image classification

Hiba Alqasir, Damien Muselet, Christophe Ducottet

Summary: The article proposes a solution to improve the learning process of a classification network by providing shape priors, reducing the need for annotated data. The solution is tested on cross-domain digit classification tasks and a video surveillance application.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Neural dynamics solver for time-dependent infinity-norm optimization based on ACP framework with robot application

Dexiu Ma, Mei Liu, Mingsheng Shang

Summary: This paper proposes a method using neural dynamics solvers to solve infinity-norm optimization problems. Two improved solvers are constructed and their effectiveness and superiority are demonstrated through theoretical analysis and simulation experiments.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

cpp-AIF: A multi-core C plus plus implementation of Active Inference for Partially Observable Markov Decision Processes

Francesco Gregoretti, Giovanni Pezzulo, Domenico Maisto

Summary: Active Inference is a computational framework that uses probabilistic inference and variational free energy minimization to describe perception, planning, and action. cpp-AIF is a header-only C++ library that provides a powerful tool for implementing Active Inference for Partially Observable Markov Decision Processes through multi-core computing. It is cross-platform and improves performance, memory management, and usability compared to existing software.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Predicting stock market trends with self-supervised learning

Zelin Ying, Dawei Cheng, Cen Chen, Xiang Li, Peng Zhu, Yifeng Luo, Yuqi Liang

Summary: This paper proposes a novel stock market trends prediction framework called SMART, which includes a self-supervised stock technical data sequence embedding model S3E. By training with multiple self-supervised auxiliary tasks, the model encodes stock technical data sequences into embeddings and uses the learned sequence embeddings for predicting stock market trends. Extensive experiments on China A-Shares market and NASDAQ market prove the high effectiveness of our model in stock market trends prediction, and its effectiveness is further validated in real-world applications in a leading financial service provider in China.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

DHGAT: Hyperbolic representation learning on dynamic graphs via attention networks

Hao Li, Hao Jiang, Dongsheng Ye, Qiang Wang, Liang Du, Yuanyuan Zeng, Liu Yuan, Yingxue Wang, C. Chen

Summary: DHGAT1, a dynamic hyperbolic graph attention network, utilizes hyperbolic metric properties to embed dynamic graphs. It employs a spatiotemporal self-attention mechanism and weighted node representations, resulting in excellent performance in link prediction tasks.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Progressive network based on detail scaling and texture extraction: A more general framework for image deraining

Jiehui Huang, Zhenchao Tang, Xuedong He, Jun Zhou, Defeng Zhou, Calvin Yu-Chian Chen

Summary: This study proposes a progressive learning multi-scale feature blending model for image deraining tasks. The model utilizes detail dilation and texture extraction to improve the restoration of rainy images. Experimental results show that the model achieves near state-of-the-art performance in rain removal tasks and exhibits better rain removal realism.

NEUROCOMPUTING (2024)

Article Computer Science, Artificial Intelligence

Stabilization and synchronization control for discrete-time complex networks via the auxiliary role of edges subsystem

Lizhi Liu, Zilin Gao, Yinhe Wang, Yongfu Li

Summary: This paper proposes a novel discrete-time interconnected model for depicting complex dynamical networks. The model consists of nodes and edges subsystems, which consider the dynamic characteristic of both nodes and edges. By designing control strategies and coupling modes, the stabilization and synchronization of the network are achieved. Simulation results demonstrate the effectiveness of the proposed methods.

NEUROCOMPUTING (2024)