This module is devoted to the construction of artificial neural networks and includes the following sections: Biological neuron; Artificial neuron; Single-layer perceptrons; Straightforward chain networks; Architecture; Learning procedures in single-layer and multi-layer networks; Backward chain networks. Adaptation procedures; Associative memory; Concurrent learning; Software; Neural network applications for information processing.
Architecture and elements of artificial neural networks. Perceptron. Adaptation algorithms. Development of NN technology. Learning methods for single-layer and multi-layer perceptrons. Optimization and forecasting problems. Software. Neurocomputing: algorithms and applications. Design of artificial neural systems: commercial products. Application of artificial neural networks. Cluster analysis. Classification.
The study course covers the theoretical and practical principles of high-performance computing in the context of cybersecurity by using graphics processing hardware and dedicated software. The study course includes an overview of architecture, computing algorithms, software libraries and tools of parallel computing platform CUDA based on graphics processors. An in-depth attention is devoted to the cross-disciplinary application of CUDA in the areas of vulnerability analysis, parallel data encryption, surveillance data mining, object detection and recognition.
The study course covers the theoretical and practical principles of massively parallel high-performance computing that are implemented in a unified framework of multiprocessor systems and specialized software environment. The study course includes an overview of types of high-performance computing hardware and software architecture, computing algorithms, application libraries and tools.
This study course covers the theoretical and practical principles of high performance computing that are implemented using graphics processing hardware and specialized software. The study course includes an overview of CUDA parallel computing platform architecture based on graphics processors, parallel computing algorithms, application libraries and tools. An in-depth focus is put on the interdisciplinary application of CUDA, for example, in the areas of big data analysis, interoperability with computer graphics, image processing, computational modelling and machine learning.
The aim of the course is to train engineers who, having acquired a high level of scientific and specific technical knowledge in the field of informatics, are capable of designing new IT systems and tools, developing and integrating IT systems, carrying out and coordinating R&D tasks in the field of informatics, and continuing their studies in the framework of a PhD.
The aim is to train engineers who, having acquired a high level of scientific and specific technical knowledge in the field of informatics, are capable of designing new IT systems and tools, developing and integrating IT systems, carrying out and coordinating R&D tasks in the field of informatics, and pursuing their studies in the framework of a PhD.
