Topics

<> machine learning (242)
<> artificial intelligence (97)
<> bioinformatics (76)
<> Deep learning (58)
<> Computer science (57)
<> Computer Vision (55)
<> computer graphics (42)
<> data mining (42)
<> cybersecurity (37)

Multi-layer Red Team vs. Blue Team Methods towards Secure Cyber-Physical Energy Systems

Charalambos (Harrys) Konstantinou, Assistant Professor of Electrical and Computer Engineering with Florida A&M University and Florida State University (FAMU-FSU) College of Engineering

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B9 L2 H1

<> High Performance Computing (29) <> optimization (29)
<> visual computing (29)
<> big data (27)
<> visualization (27)
<> Computational biology (23)
<> genomics (18)
<> Scientific Visualization (16)
<> IoT (15)
<> bioscience (13)
<> algorithms (12)
<> applied mathematics (12)
<> computational science (12)
<> data analysis (12)
<> distributed systems (11)
<> supercomputing (11)
<> data integration (10)
<> Federated learning (10)
<> geometry processing (10)
<> human health (10)
<> modeling (10)
<> cloud computing (9)
<> computational imaging (9)
<> data science (9)
<> text mining (9)
<> algorithm (8)
<> computational methods (8)
<> healthcare (8)
<> Natural Language Processing (8)
<> reconfigurable computing (8)
<> biology (7)
<> biomedicine (7)
<> cancer (7)
<> communication networks (7)
<> communications (7)
<> data visualisation (7)
<> GPU Computing (7)
<> graph mining (7)
<> image processing (7)
<> privacy (7)
<> resilience (7)
<> scientific computing (7)
<> statistics (7)
<> biomedical data (6)
<> nanovisualization (6)

Nanovisualization: Depicting the Tiny World Around Us

Ivan Viola, Associate Professor, Computer Science

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KAUST

Life at micron-scale is inaccessible to the naked eye. To aid the comprehension of nano- and micro-scale structural complexity, we utilize 3D visualization. Thanks to efficient GPU-accelerated algorithms, we witness a dramatic boost in the sheer size of structures that can be visually explored. As of today an atomistic model of the entire bacterial cell can be displayed interactively. On top of that, advanced 3D visualizations efficiently convey the multi-scale hierarchical architecture and cope with the high degree of structural occlusion which comes with dense packing of biological building blocks. To further scale up the size of life forms that can be visually explored, the rendering pipeline needs to integrate runtime construction of the biological structure. Assembly rules define how a body of a certain biological entity is composed. Such rules need to be applied on-the-fly, depending on where the viewer is currently located in the 3D scene to generate full structural detail for that part of the scene. We will review how to construct membrane-like structures, soluble protein distributions, and fiber strands through parallel algorithms, resulting in a collision-free biologically-valid scene. Assembly rules that define how a life form is structurally built need to be expressed in an intuitive way for the domain scientist, possibly directly in the three-dimensional space. Instead of placing one biological element next to another one for the entire biological structure by the modelers themselves, only assembly rules need to be specified and the algorithm will complete the application of those rules to form the entire biological entity. These rules are derived from current scientific knowledge and from all available experimental observations. The Cryo-EM Tomography is on rising and shows that we can already now reach the near-atomistic detail when employing smart algorithms. Our assembly rules extraction, therefore, needs to integrate with microscopic observations, to create an atomistic representation of specific, observed life forms, instead of generic models thereof. Such models then can be used in whole-cell simulations, and in the context of automated science dissemination.
<> neural network (6)
<> Ontologies (6)
<> Reinforcement Learning (6)
<> autonomous vehicles (5)
<> Computational Photography (5)
<> Computer architecture (5)
<> computer networks (5)
<> COVID-19 (5)
<> embedded systems (5)
<> geometric modeling (5)
<> HPC (5)
<> mathematics (5)
<> numerical simulations (5)
<> real-time rendering (5)
<> robotics (5)
<> structural biology (5)
<> systems biology (5)
<> wireless sensor networks (5)
<> 3D reconstruction (4)
<> blockchain (4)
<> complex models (4)
<> Continual Learning (4)
<> Cyber attacks and defenses (4)

Multi-layer Red Team vs. Blue Team Methods towards Secure Cyber-Physical Energy Systems

Charalambos (Harrys) Konstantinou, Assistant Professor of Electrical and Computer Engineering with Florida A&M University and Florida State University (FAMU-FSU) College of Engineering

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B9 L2 H1

<> cyber-physical systems (4)
<> data security (4)
<> fluid dynamics (4)
<> FPGA (4)
<> Graph Neural Networks (4) <> Medical imaging (4)
<> network security (4)
<> Neural Networks (4)
<> parallel computing (4)
<> recommender systems (4)
<> resilient computing (4)
<> Semantic web (4)
<> Signal processing (4) <> software (4)
<> synthetic biology (4)
<> UAV (4)
<> AI (3) <> applied geometry (3)
<> combinatorial optimization (3)
<> combustion (3) <> computation (3)
<> Computer simulations (3)
<> computing (3)