* indicates that this line can be assigned as a paper's topic.
1: | Advancing Neural Engineering Through Big Data | ||
1.1*: | Brain Computer Interfaces | ||
1.2*: | Wearable and Assistive devices | ||
1.3*: | Neurological Sensor Arrays and Transduction | ||
1.4*: | Biocompatible Interface Materials | ||
1.5*: | Bioelectrical Signal Processing | ||
1.6*: | Neuromotor and Neurosensory Modeling | ||
1.7*: | Bioengineering Application of Big Data | ||
1.8*: | Best Practices in Experimental Design | ||
1.9*: | Annotation and Distribution Standards | ||
1.10*: | Benchmarks and Open Source Tools | ||
1.11*: | Invited: Advancing Neural Engineering Through Big Data | ||
2: | Bioinformatics and Systems Biology | ||
2.1*: | High throughput sequencing data analysis | ||
2.2*: | Big data analytics in genomics and proteomics | ||
2.3*: | SNP/genotype/haplotype calling | ||
2.4*: | Biomarker discovery | ||
2.5*: | Modeling of disease dynamics | ||
2.6*: | Drug screening and effectiveness prediction | ||
2.7*: | Genetic network and pathway modeling and simulation | ||
2.8*: | Dynamics and control of genetic regulatory networks | ||
2.9*: | Functions of miRNA and non-coding RNAs | ||
2.10*: | Invited: Bioinformatics and Systems Biology | ||
3: | Controlled Sensing For Inference: Applications, Theory and Algorithms | ||
3.1*: | Sensor Management for tracking | ||
3.2*: | Sensor Management for detection, estimation, and classification | ||
3.3*: | Management of heterogeneous sensing resources | ||
3.4*: | Data-driven and non-parametric inference methods | ||
3.5*: | Information collection, processing and fusion | ||
3.6*: | Fundamental limits of sensing systems | ||
3.7*: | Applications of controlled sensing to infrastructure monitoring | ||
3.8*: | Controlled sensing for medical imaging | ||
3.9*: | Radar and surveillance applications | ||
3.10*: | Controlled sensing in social networks | ||
3.11*: | Invited: Controlled Sensing For Inference: Applications, Theory and Algorithms | ||
4: | Cyber-Security and Privacy | ||
4.1*: | Analysis and mitigation of side channels | ||
4.2*: | Attacks on privacy and privacy technologies | ||
4.3*: | Fingerprinting and watermarking | ||
4.4*: | Information-theoretic security | ||
4.5*: | Network security and intrusion detection | ||
4.6*: | Privacy challenges in large data | ||
4.7*: | Secure computation framework | ||
4.8*: | Traffic analysis | ||
4.9*: | Biometric Security, Privacy and Authentication | ||
4.10*: | Machine Learning in Security | ||
4.11*: | Invited: Cyber-Security and Privacy | ||
5: | Emerging Challenges in Network Sensing, Inference, and Communication | ||
5.1*: | Sparsity in network sensing, inference, and communication | ||
5.2*: | Network structure inference from noisy observations | ||
5.3*: | Network inference in the presence of missing data | ||
5.4*: | Efficient sensing of network data | ||
5.5*: | Energy management in networks | ||
5.6*: | Complex network topology | ||
5.7*: | Dynamics of networks | ||
5.8*: | Flows on networks | ||
5.9*: | Applications in communication networks | ||
5.10*: | Applications in biological networks | ||
5.11*: | Applications in social networks | ||
5.12*: | Invited: Emerging Challenges in Network Sensing, Inference, and Communication | ||
6: | Energy Harvesting and Green Wireless Communications | ||
6.1*: | Physical layer design for energy harvesting communications | ||
6.2*: | Signal processing for energy harvesting communication | ||
6.3*: | Information theory of energy harvesting communications | ||
6.4*: | Network theoretic approaches for energy harvesting communications | ||
6.5*: | Energy and message cooperation | ||
6.6*: | Energy efficient MIMO | ||
6.7*: | Design of green wireless communication systems with hybrid energy sources | ||
6.8*: | Heterogeneous green wireless communications systems | ||
6.9*: | Small cell networks and green communications | ||
6.10*: | Invited: Energy Harvesting and Green Wireless Communications | ||
7: | Graph Signal Processing | ||
7.1*: | Transforms for graph signals | ||
7.2*: | Estimation, denoising, and compression for graph signals | ||
7.3*: | Sparse representations of graph signals | ||
7.4*: | Multi-scale analysis on graphs | ||
7.5*: | Graph signal downsampling and simplification | ||
7.6*: | Uncertainty principles for graph signals | ||
7.7*: | Estimating graph structure from data point-clouds | ||
7.8*: | Graph signal processing in machine learning | ||
7.9*: | Applications of graph signal processing | ||
7.10*: | Invited: Graph Signal Processing | ||
8: | Information Processing in the Smart Grid | ||
8.1*: | Smart Grid Communication Networks | ||
8.2*: | Demand Side Management Systems | ||
8.3*: | Smart Grid Cyber-Security and Privacy | ||
8.4*: | Architectures and Models for the Smart Grid | ||
8.5*: | Smart Grid Large Data Sets: Modeling, Analysis, Communications, Compression, Storage and Security | ||
8.6*: | Distributed Data Processing and Decision-making in the Grid | ||
8.7*: | Smart Metering Networks and Data Processing | ||
8.8*: | Communication and Data Processing for Phasor Measurement Units | ||
8.9*: | Renewable and Storage Integration Challenges in Smart Grid Cyber Systems | ||
8.10*: | Real-Time Electricity Market Interactions | ||
8.11*: | Secure Power System State Estimation and Monitoring | ||
8.12*: | Invited: Information Processing in the Smart Grid | ||
9: | Information Processing over Networks | ||
9.1*: | Advances in network science | ||
9.2*: | Bio-inspired distributed processing | ||
9.3*: | Biological networks | ||
9.4*: | Distributed adaptation | ||
9.5*: | Distributed control mechanisms | ||
9.6*: | Distributed detection and inference | ||
9.7*: | Distributed estimation and filtering | ||
9.8*: | Distributed game-theoretic strategies | ||
9.9*: | Distributed information processing | ||
9.10*: | Distributed learning | ||
9.11*: | Distributed optimization | ||
9.12*: | Graphical models | ||
9.13*: | Signal processing over graphs | ||
9.14*: | Social networks | ||
9.15*: | Random graph representations | ||
9.16*: | Sparse graph representations | ||
9.17*: | Invited: Information Processing over Networks | ||
10: | Low-Dimensional Models and Optimization in Signal Processing | ||
10.1: | Dimensionality Reduction | ||
10.1.1*: | Linear dimensionality reduction and compressive sensing | ||
10.1.2*: | Nonlinear dimensionality reduction and manifold learning | ||
10.1.3*: | Subsampling, inpainting, and partial observations | ||
10.1.4*: | Adaptive sensing | ||
10.1.5*: | Active learning | ||
10.1.6*: | Experimental design | ||
10.1.7*: | Information scalability | ||
10.2: | Algorithms for Signal Processing | ||
10.2.1*: | Optimization Algorithms | ||
10.2.2*: | Greedy Algorithms | ||
10.2.3*: | Optimization Solvers | ||
10.3: | Signal Models | ||
10.3.1*: | Subspaces and unions of subspaces | ||
10.3.2*: | Sparsity and structured sparsity | ||
10.3.3*: | Low-rank matrices | ||
10.3.4*: | High-dimensional tensors | ||
10.3.5*: | Nonlinear manifolds | ||
10.4: | Signal Processing | ||
10.4.1*: | Detection and classification | ||
10.4.2*: | Estimation and inference | ||
10.4.3*: | Supervised learning | ||
10.4.4*: | Clustering and unsupervised learning | ||
10.5: | Compressive Sensing | ||
10.5.1*: | Compressive sensor architectures and hardware | ||
10.5.2*: | Computationally efficient recovery and estimation algorithms | ||
10.5.3*: | Practical considerations | ||
10.5.4*: | Distributed sensing and sensor networks | ||
10.6*: | Invited: Low-Dimensional Models and Optimization in Signal Processing | ||
11: | Low-Power Systems and Signal Processing | ||
11.1*: | Speech, Audio and Signal Processing | ||
11.2*: | Vision and Image Processing | ||
11.3*: | Bio-Medical Signal Processing | ||
11.4*: | Sensor Analytics | ||
11.5*: | Sensor Fusion | ||
11.6*: | Distributed Sensor Networks | ||
11.7*: | Body Area Networks | ||
11.8*: | Invited: Low-Power Systems and Signal Processing | ||
12: | Millimeter Wave Imaging and Communications | ||
12.1*: | Millimeter Wave Coherent Imaging and Signal Processing | ||
12.2*: | Holographic Millimeter-wave Imaging, Automotive Radars, and Remote Sensing | ||
12.3*: | Compressive Sensing in Radars and Imaging | ||
12.4*: | MIMO Radars | ||
12.5*: | Millimeter Phased Arrays | ||
12.6*: | Quasi-Optical Techniques | ||
12.7*: | THz Imaging | ||
12.8*: | Millimeter Wave Communication Systems and Applications | ||
12.9*: | Signal Processing Techniques for Impairments in Millimeter Wave Systems | ||
12.10*: | Invited: Millimeter Wave Imaging and Sensing | ||
13: | Mobile Imaging | ||
13.1*: | Multimedia processing on mobile devices | ||
13.2*: | Mobile computational photography | ||
13.3*: | Augmented reality | ||
13.4*: | Image enhancement for mobile devices | ||
13.5*: | Mobile visual search | ||
13.6*: | Mobile imaging system design | ||
13.7*: | Mobile image quality | ||
13.8*: | User experience and interaction on mobile devices | ||
13.9*: | Invited: Mobile Imaging | ||
14: | Network Theory | ||
14.1*: | Wireless networking | ||
14.2*: | Distributed signal processing | ||
14.3*: | Social Networks | ||
14.4*: | Biological networks | ||
14.5*: | Network information theory | ||
14.6*: | Network coding | ||
14.7*: | Distributed storage systems | ||
14.8*: | Multi-agent systems | ||
14.9*: | In-network computations | ||
14.10*: | Networked control systems | ||
14.11*: | Invited: Network Theory | ||
15: | New Sensing and Statistical Inference Methods | ||
15.1*: | Active learning and adaptive sampling | ||
15.2*: | Compressive-sensing-inspired systems | ||
15.3*: | Computational imaging systems | ||
15.4*: | Computational methods for "big data" | ||
15.5*: | Data-adaptive representation theory/Dictionary learning | ||
15.6*: | Distributed statistics/machine learning | ||
15.7*: | High-dimensional statistical inference | ||
15.8*: | Manifold-based signal processing | ||
15.9*: | New sensing paradigms in medical imaging | ||
15.10*: | Information processing in social networks | ||
15.11*: | Robust statistical inference | ||
15.12*: | Sensing/inference for biological processes | ||
15.13*: | Sensing/processing of hyperspectral data | ||
15.14*: | Statistical inference in graphical models | ||
15.15*: | Invited: New Sensing and Statistical Inference Methods | ||
16: | Optimization in Machine Learning and Signal Processing | ||
16.1*: | Models and estimation | ||
16.2*: | Sparsity, Low-rank and other methods in high-dimensional statistics | ||
16.3*: | Large-scale convex optimization: algorithms and applications | ||
16.4*: | Graphical models: inference, structure learning etc. | ||
16.5*: | Optimization for clustering, classification, regression etc. | ||
16.6*: | Non-convex and iterative methods | ||
16.7*: | Invited: Optimization in Machine Learning and Signal Processing | ||
17: | Signal and Information Processing in Finance and Economics | ||
17.1*: | Portfolio analysis: modeling and estimation of statistical dependence, sparse portfolios, robust portfolios, portfolio replication and tracking | ||
17.2*: | Risk analysis and modeling | ||
17.3*: | Term structure modeling | ||
17.4*: | Market microstructure analysis and order book modeling | ||
17.5*: | Market making and inventory management | ||
17.6*: | Technical analysis | ||
17.7*: | Algorithmic trading and optimal order execution | ||
17.8*: | Financial networks and systemic risk | ||
17.9*: | Behavioral finance and prospect theory | ||
17.10*: | Pricing and hedging of derivatives | ||
17.11*: | Smart order routing algorithms | ||
17.12*: | Spectrum markets | ||
17.13*: | Electricity markets and Smart Grid | ||
17.14*: | Economics of social networks | ||
17.15*: | Business analytics | ||
17.16*: | Invited: Signal and Information Processing in Finance and Economics | ||
18: | Software Defined and Cognitive Radios | ||
18.1*: | Algorithm and architecture co-optimization | ||
18.2*: | Platforms and architectures for SDR and CR | ||
18.3*: | RF/analog architectures for SDR | ||
18.4*: | Design methodologies and tools | ||
18.5*: | Baseband processing techniques | ||
18.6*: | Software for SDR and cognitive radios | ||
18.7*: | Cognitive radio technologies | ||
18.8*: | Dynamic spectrum access technologies | ||
18.9*: | Invited: Software Defined and Cognitive Radios |