Title Details: | |
Modeling and Analysis of Complex Networks in Molecular Biology and Neuroscience |
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Other Titles: |
Using R and Python |
Authors: |
Vrahatis, Aristidis Dimitrakopoulos, Georgios Vlamos, Panagiotis |
Subject: | MEDICINE AND HEALTH SCIENCES, LIFE SCIENCES, BIOLOGICAL SCIENCES > LIFE SCIENCES > TECHNOLOGIES AND APPLICATIONS > SYSTEMS BIOLOGY MEDICINE AND HEALTH SCIENCES, LIFE SCIENCES, BIOLOGICAL SCIENCES > LIFE SCIENCES > TECHNOLOGIES AND APPLICATIONS > BIOINFORMATICS MEDICINE AND HEALTH SCIENCES, LIFE SCIENCES, BIOLOGICAL SCIENCES > LIFE SCIENCES > MOLECULAR BIOSCIENCES > NEUROSCIENCES > COMPUTATIONAL NEUROSCIENCES MEDICINE AND HEALTH SCIENCES, LIFE SCIENCES, BIOLOGICAL SCIENCES > LIFE SCIENCES > MOLECULAR BIOSCIENCES > NEUROSCIENCES > NEUROINFORMATICS MATHEMATICS AND COMPUTER SCIENCE > MATHEMATICS > COMBINATORICS > GRAPH THEORY MATHEMATICS AND COMPUTER SCIENCE > COMPUTER SCIENCE > INTELLIGENT SYSTEMS > BASIC MACHINE LEARNING |
Keywords: |
Bioinformatics
Systems Biology Computational Neurosciences Graph Theory Machine Learning Gene expression data Electroencephalogram (EEG) |
Description: | |
Abstract: |
A complex system consists of many components, which may interact with each other in several ways. Graph/Network-based modelling is a suitable approach for understanding such complex systems. Also, machine learning techniques now play an important role in analysing large volumes of data. Two such systems in the wider area of Biology, which are still not fully understood, are the cell and the brain. Bioinformatics is an interdisciplinary scientific field that develops methodologies and software tools for understanding biological data, which can focus on the genomic, transcriptomic, proteomic or metabolomic level. Today, with the recent techniques of Molecular Biology, a huge amount of data is produced; thus, adapted algorithmic techniques are required for their efficient processing. In the field of Computational Neuroscience, we focus on electroencephalography (EEG), which captures signals from multiple areas of the brain. These data require careful pre-processing to be analysed and provide useful information. The most advanced analysis techniques include the generation of networks in time and frequency domains. Therefore, in this book, we present in detail the most recent and widely used methods in the literature for graph analysis of distinct types of data in Molecular Biology and Neurosciences
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Linguistic Editors: |
Kalliaras, Dimitris |
Graphic Editors: |
Dreliosi, Georgia-Christina |
Type: |
Postgraduate textbook |
Creation Date: | 02-12-2024 |
Item Details: | |
ISBN |
978-618-228-305-9 |
License: |
Attribution - NonCommercial - ShareAlike 4.0 International (CC BY-NC-SA 4.0) |
DOI | http://dx.doi.org/10.57713/kallipos-1055 |
Handle | http://hdl.handle.net/11419/14219 |
Bibliographic Reference: | Vrahatis, A., Dimitrakopoulos, G., & Vlamos, P. (2024). Modeling and Analysis of Complex Networks in Molecular Biology and Neuroscience [Postgraduate textbook]. Kallipos, Open Academic Editions. https://dx.doi.org/10.57713/kallipos-1055 |
Language: |
Greek |
Consists of: |
1. Basic Concepts 2. Introduction to Molecular Biology 3. Networks of Molecular Biology 4. Introduction to Graphs 5. Modelling networks of Molecular Biology 6. Introduction to Neurosciences 7. Modelling brain networks 8. Artificial Neural Networks and Graph Neural Networks 9. Graph Analysis with R 10. Graph Analysis with Python 11. Brain Network Analysis using EEGLAB and Python |
Number of pages |
314 |
Publication Origin: |
Kallipos, Open Academic Editions |
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