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Data · dataset · 2026

Machine learning and electroencephalography for enhanced learning in human-computer interaction

Listed in ZivaHub and Deakin Research Online and DMU Figshare and UCL Research Data Repository — shown once because both records carry DOI 10.17034/32633205.v1

Human-computer interaction has become fundamental to modern society.

Description

Improvements in this field have extensive potential across a number of important application domains, such as the capacity to augment human efficiency in the industry sector, evolve technology consumption in recreational settings, and transform learning environments in education. A successful human-computer interface requires a complex synthesis of multiple sophisticated technologies.

Despite a rich and diverse corpus of literature that investigates various components and approaches, there are many elements under exploited. In particular, electroencephalography and machine learning are powerful tools that can assist computer interpretation of human behaviour and amplify communication protocols more generally. This thesis looks at different techniques for leveraging electroencephalography and machine learning in human-computer interaction to improve pedagogical technology, utilising driving as a training scenario.

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The work investigates the relationships between neurological features, learning, memory, and task performance; making effective predictions of vehicle trajectory based on participant behaviour data; and explaining neural networks to elevate transparency of computer reasoning. Multiple contributions are made in these research areas. Specifically, the P300 is demonstrated as a marker of working memory in virtual training environments, extending understanding of this neural response.

Then, delta and theta band activity are demonstrated as modulating with different aspects of driving performance, allowing improvements in behavioural analysis. Furthermore, integrating neurological data into time series recurrent neural networks is verified as a valid technique for improving vehicle trajectory predictions. Finally, a contribution is made to the AI explanation literature, whereby the genetic algorithm is implemented to explain video classifiers.

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Where it is published

Catalogue records · 1

Topics

Inferred from text
Video 75%
Provenance · 4 source records, 9 field assertions
SourceKeyLast seenRaw
ZivaHuboai:figshare.com:article/3263320512 d agoJSON v1
Deakin Research Onlineoai:figshare.com:article/3263320512 d agoJSON v1
DMU Figshareoai:figshare.com:article/3263320512 d agoJSON v1
UCL Research Data Repositoryoai:figshare.com:article/3263320512 d agoJSON v1
FieldAssertionExtractorEvidence
concepts[field].local:field:earth-environmentalmapping · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
concepts[field].local:field:earth-environmentalmapping · rdr ucl ac ukconnector:rdr_ucl_ac_uk@1.0.0
concepts[field].local:field:earth-environmentalmapping · figshare dmu ac ukconnector:figshare_dmu_ac_uk@1.0.0
concepts[field].local:field:earth-environmentalmapping · dro deakin edu auconnector:dro_deakin_edu_au@1.0.0
concepts[modality].local:modality:videoenrichment · zivahub uct ac zakeyword-concept-rules@1.0.0title+description (75%)
descriptionsource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0/metadata/dc/description
license_textsource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
publication_datesource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
titlesource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0/metadata/dc/title