Analyzing novice programmers' EEG signals using unsupervised algorithms

Ten (10) first year college programming students participated in the study and reported their emotions during the learning session. Emotiv EPOC headset was used to gather EEG brainwave signals. Digital signal processing filtering technique was used to filter the data. The reported academic emotions...

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Main Authors: Swansi, Vanlalhruaii, Herradura, Tita, Suarez, Merlin Teodosia
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Published: Animo Repository 2017
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Online Access:https://animorepository.dlsu.edu.ph/faculty_research/1278
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Institution: De La Salle University
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spelling oai:animorepository.dlsu.edu.ph:faculty_research-22772021-06-09T07:41:19Z Analyzing novice programmers' EEG signals using unsupervised algorithms Swansi, Vanlalhruaii Herradura, Tita Suarez, Merlin Teodosia Ten (10) first year college programming students participated in the study and reported their emotions during the learning session. Emotiv EPOC headset was used to gather EEG brainwave signals. Digital signal processing filtering technique was used to filter the data. The reported academic emotions were engaged, confused, frustration and boredom. A square SOM map with 10 rows by 10 columns was built to visualize the EEG data set, a total of 100 nodes. The weights of the final SOM nodes were clustered using k-medoids and k-means algorithms, both derived two main clusters; one cluster aptly named “State of hope and enthusiasm” because it is primarily composed of clusters of confused emotion nodes surrounded by a topographical arrangement of engaged emotion nodes; the other cluster named “State of frustration and boredom” because it is primarily composed of frustrated and boredom emotion nodes. These observations of the topographical arrangements of the SOM nodes and its subsequent clustering of the SOM nodes by k-medoids and k-means, seem to be in accordance with previous findings by (Kort, Reilly & Picard, 2001; D'Mello & Graesser, 2011) ultimately making SOM to be a viable and good alternative representation/visualization tool for D'Mello's theory of academic affect transition model. We also observed that k-medoids required much lesser number of k to derive similar clusters of SOM nodes as k-means, moreover, execution time for k-medoids is the same as k-means, making k-medoids a very attractive option for clustering algorithm of choice for clustering of SOM nodes. © 2017 Asia-Pacific Society for Computers in Education. All rights reserved. 2017-01-01T08:00:00Z text https://animorepository.dlsu.edu.ph/faculty_research/1278 Faculty Research Work Animo Repository Electroencephalography Emotions and cognition Computer Sciences Software Engineering
institution De La Salle University
building De La Salle University Library
continent Asia
country Philippines
Philippines
content_provider De La Salle University Library
collection DLSU Institutional Repository
topic Electroencephalography
Emotions and cognition
Computer Sciences
Software Engineering
spellingShingle Electroencephalography
Emotions and cognition
Computer Sciences
Software Engineering
Swansi, Vanlalhruaii
Herradura, Tita
Suarez, Merlin Teodosia
Analyzing novice programmers' EEG signals using unsupervised algorithms
description Ten (10) first year college programming students participated in the study and reported their emotions during the learning session. Emotiv EPOC headset was used to gather EEG brainwave signals. Digital signal processing filtering technique was used to filter the data. The reported academic emotions were engaged, confused, frustration and boredom. A square SOM map with 10 rows by 10 columns was built to visualize the EEG data set, a total of 100 nodes. The weights of the final SOM nodes were clustered using k-medoids and k-means algorithms, both derived two main clusters; one cluster aptly named “State of hope and enthusiasm” because it is primarily composed of clusters of confused emotion nodes surrounded by a topographical arrangement of engaged emotion nodes; the other cluster named “State of frustration and boredom” because it is primarily composed of frustrated and boredom emotion nodes. These observations of the topographical arrangements of the SOM nodes and its subsequent clustering of the SOM nodes by k-medoids and k-means, seem to be in accordance with previous findings by (Kort, Reilly & Picard, 2001; D'Mello & Graesser, 2011) ultimately making SOM to be a viable and good alternative representation/visualization tool for D'Mello's theory of academic affect transition model. We also observed that k-medoids required much lesser number of k to derive similar clusters of SOM nodes as k-means, moreover, execution time for k-medoids is the same as k-means, making k-medoids a very attractive option for clustering algorithm of choice for clustering of SOM nodes. © 2017 Asia-Pacific Society for Computers in Education. All rights reserved.
format text
author Swansi, Vanlalhruaii
Herradura, Tita
Suarez, Merlin Teodosia
author_facet Swansi, Vanlalhruaii
Herradura, Tita
Suarez, Merlin Teodosia
author_sort Swansi, Vanlalhruaii
title Analyzing novice programmers' EEG signals using unsupervised algorithms
title_short Analyzing novice programmers' EEG signals using unsupervised algorithms
title_full Analyzing novice programmers' EEG signals using unsupervised algorithms
title_fullStr Analyzing novice programmers' EEG signals using unsupervised algorithms
title_full_unstemmed Analyzing novice programmers' EEG signals using unsupervised algorithms
title_sort analyzing novice programmers' eeg signals using unsupervised algorithms
publisher Animo Repository
publishDate 2017
url https://animorepository.dlsu.edu.ph/faculty_research/1278
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