Project number: 09I03-03-V04-00416
Web page: https://ki.fri.uniza.sk/biosig/index.html
Signal classification is often used in many industrial applications and functioning is based on the result of automatic classification of signals. It causes strict requirements for classification accuracy and the development of new methods and algorithms of highly accurate signal classification. One of the areas with higher requirements for signal classification accuracy is medicine. Biomedical signal processing involves acquiring and preprocessing physiological signals and extracting meaningful information to identify patterns and trends within the signals. Sources of biomedical signals include neural activity, cardiac rhythm, muscle movement, and other physiological activities. For example, typical biomedical signals focused on neural activity are based on Electroencephalogram (EEG) analysis. This signal is commonly used in the development of human-computer interaction and medicine. Medical applications of automatic EEG classification are known for the diagnosis of epilepsy, Alzheimer's disease, depression, and other diseases. Every one of these applications in medical diagnosis has some specifics related to different properties of EEG signals. The most investigated EEG diagnosis application is the diagnosis of epilepsy, which belongs to the most common chronic neurological disorders.
Bio-signal Pre-Processing: Development of procedures for preprocessing. Developed methods will address how to deal with uncertain data. One possible solution is the application of fuzzy logic.
Bio-signal Classification: Development of whole classification approach for medical signal classification. The efficient classification of uncertain data often requires the application of fuzzy classifiers. This type of classifier allows for the increasing accuracy of classification for uncertain data.
Open-source Software: Development of open-source software that will integrate developed methods and approaches. The application will work with a user interface in which the user can make the design of the data mining process. The application will also be used in two courses at Faculty of Management Science and Informatics.
Result Integration: The project results will be made available through open science principles. The developed software will incorporate the methods created and will be used in two courses at the Faculty of Management Science and Informatics.
| Work Package | Deliverable | Description |
|---|---|---|
| WP1 | Project web page (https://ki.fri.uniza.sk/biosig/index.html) | |
| WP1 | CeBMI module | |
| WP1 | Conference paper - In Print | |
| WP1 | CeBMI module - data repository | |
| WP2 | Organization of workshop - RECI 2024 |
Chapters |
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| Name | Description | Chapter Number | Category | Downloaded | |
|---|---|---|---|---|---|
| Technical Documentation: Visual Workflow Engine | This document provides technical documentation for a visual workflow application focused on data analysis, data mining, and machine learning. It describes the interface, navigation, workflow construction, and SubNode architecture. | 3 | Software: Description | 3 | |
| (F)Nursery | Nursery Database was derived from a hierarchical decision model originally developed to rank applications for nursery schools. | 1 | Lecture: Presentation | 4 | |
| (F)Sonar | The problem is to predict metal or rock objects from sonar return data. The dataset contains 111 patterns obtained by bouncing sonar signals off a metal cylinder at various angles and under various conditions and 97 patterns obtained from rocks under similar conditions. | 1 | Lecture: Presentation | 2 | |
| (F)Iris | A small classic dataset from Fisher, 1936. One of the earliest known datasets used for evaluating classification methods. | 1 | Lecture: Presentation | 6 | |
| (F)Car Evaluation | Derived from simple hierarchical decision model, this database may be useful for testing constructive induction and structure discovery methods. | 1 | Lecture: Presentation | 5 | |
| (F)Wine Quality | The dataset contains wine samples, from the north of Portugal. The goal is to model wine quality based on physicochemical tests. | 1 | Lecture: Presentation | 2 | |
| (F)Drift | A generated data with controlled concept drift. Each instance was labeled using a linear model with added Gaussian noise. Before the drift point, data followed a Gaussian distribution with a fixed mean. After the drift, attribute means shifted by a set magnitude. | 1 | Lecture: Presentation | 1 | |
| (F)CoverType | Classification of pixels into 7 forest cover types based on attributes such as elevation, aspect, slope, hillshade, soil-type, and more. | 1 | Lecture: Presentation | 2 | |
| (F)SPECT_Heart | The dataset describes diagnosing cardiac Single-Proton Emission Computed Tomography (SPECT) images. Each patient is classified into two categories: normal and abnormal. The database of 267 SPECT image sets (patients) was processed to extract features that summarize the original SPECT images. As a result, 44 continuous feature patterns were created for each patient. The pattern was further processed to obtain 22 binary feature patterns. | 1 | Lecture: Presentation | 2 | |
| (F)Tic-Tac-Toe | This database encodes the complete set of possible board configurations at the end of tic-tac-toe games. | 1 | Lecture: Presentation | 3 |
| Chapter | Lecture: Presentation | Software: Description |
|---|---|---|
| 1 | (F)Car Evaluation (F)CoverType (F)Drift (F)Iris (F)Nursery (F)Sonar (F)SPECT_Heart (F)Tic-Tac-Toe (F)Wine Quality | |
| 3 | Technical Documentation: Visual Workflow Engine |