# Authors Title Details Date Pdf/Links/Bibtex Keywords
20 Nakanishi T. Longo L.Approximate-Inverse Explainability of beta–VAE Latents for Multichannel EEG Participant-generalised Topographical Representation Learning IEEE Access 2025 Electroencephalography Brain modeling Spatial coherence Scalp Perturbation methods Computational modeling Explainable AI Deep learning Electroencephalography VAE topographic mapping approximate inverse model explanations generative deep learning representation learning
10.1109/ACCESS.2025.3635543
19Ahmed T., Biecek P. Longo L. Latent Space Interpretation and Mechanistic Clipping of Subject-Specific Variational Autoencoders of EEG Topographic Maps for Artefacts Reduction eXplainable Artificial Intelligence, The World Conference (xAI-2025) 2025 Electroencephalography Spectral topographic maps Subject-specific Variational autoencoder Latent space interpretability Artefacts removal Deep learning full automation explainable AI
10.1007/978-3-032-08327-2_16
18Singh G., Chharia A., Upadhyay R., Kumar V., Longo L. PyNoetic: A modular python framework for no-code development of EEG brain-computer interfaces PlosOne 2025 Electroencephalography Man-computer interface Signal processing Programming languages Signal filtering Algorithms Vision Event-related potentials
10.1371/journal.pone.0327791
17Longo L., Reilly R.Instantiating the onEEGwaveLAD Framework for Real-Time Muscle Artefact Identification and Mitigation in EEG Signals Sensors 2025 electroencephalography muscle artefacts real-time denoiser discrete wavelet transform Isolation Forest machine learning signal processing and restoration sliding moving buffer
10.3390/s25165018
16Gomez-Tapia C., Bozic B, Longo L. Evaluation of EEG pre-processing and source localization in ecological research Frontiers Neuroimaging 2025 Electroencephalography source localization ecological settings inverse modeling source imaging eLORETA pipeline Neurocomputing Neuroscience Ecological Research
10.3389/fnimg.2025.1479569
15Longo L., Reilly R.B.onEEGwaveLAD: A fully automated online EEG wavelet-based learning adaptive denoiser for artefacts identification and mitigation Plos One 2025 Electroencephalography Isolation Forests Computational pipelines Trees Probability distribution Time domain analysis Wavelet transforms Denoiser Artefacts Signal processing
10.1371/journal.pone.0313076
14Criscuolo S., Apicella A., Prevete R., Longo L.Interpreting the latent space of a Convolutional Variational Autoencoder for semi-automated eye blink artefact detection in EEG signals Computer Standards & Interfaces 2025 Electroencephalography Variational autoencoders Convolution Ocular artefacts detection Latent space interpretation
10.1016/j.csi.2024.103897
13Criscuolo S., Giugliano S., Apicella, A., Donnarumma F., Amato F. Tedesco A., Longo L.Exploring the Latent Space of Person-Specific Convolutional Autoencoders for Eye-Blink Artefact Mitigation in EEG Signals 2024 IEEE 8th Forum on Research and Technologies for Society and Industry Innovation (RTSI) 2024 Electroencephalography Autoencoders Eye-blink Artefacts Detection Latent Space interpretation Explainable Artificial Intelligence Artificial Intelligence Machine Learning Deep learning
10.1109/RTSI61910.2024.10761377
12 Lal U, Chikkankod V. A, Longo L.A Comparative Study on Feature Extraction Techniques for the Discrimination of Frontotemporal Dementia and Alzheimer’s Disease with Electroencephalography in Resting-State Adults Brain Sciences 2024 electroencephalography neural signal processing feature extraction techniques supervised learning deep learning machine learning
10.3390/brainsci14040335
11Lal U., Vinayak Chikkankod A., Longo L. Fractal dimensions and machine learning for detection of Parkinson’s disease in resting-state electroencephalography Neural Computing and Applications 2024 Electroencephalography Explainable AI Fractal dimension Entropy Sliding windowing Feature extraction Supervised learning Machine Learning Deep-learning
10.1007/s00521-024-09521-4
10Ahmed T., Longo L.Latent Space Interpretation and Visualisation for Understanding the Decisions of Convolutional Variational Autoencoders Trained with EEG Topographic Maps Joint Proceedings of the xAI-2023 Late-breaking Work, Demos and Doctoral Consortium co-located with the 1st World Conference on eXplainable Artificial Intelligence (xAI-2023) 2023 Electroencephalography Convolutional variational autoencoders latent space interpretation deep learning spectral topographic maps Machine Learning
9Gómez Tapia C., Bozic B., Longo L. Investigating the Effect of Pre-processing Methods on Model Decision-Making in EEG-Based Person Identification eXplainable Artificial Intelligence, The World Conference (xAI-2023) 2023 Electroencephalography eXplainable Artificial Intelligence Deep Learning Signal processing attribution xAI methods Graph-Neural Network Biometrics signal-to-noise ratio
10.1007/978-3-031-44070-0_7
8Ahmed T., Longo L.Interpreting Disentangled Representations of Person-Specific Convolutional Variational Autoencoders of Spatially Preserving EEG Topographic Maps via Clustering and Visual Plausibility Information 2023 electroencephalography convolutional variational autoencoder latent space interpretation deep learning spectral topographic maps
10.3390/info14090489
7Kalra J., Mittal P., Mittal N., Arora A., Tewari U., Chharia A., Upadhyay R., Kumar V., Longo L.How Visual Stimuli evoked P300 is transforming the Brain-Computer Interface Landscape: A PRISMA Compliant Systematic Review IEEE Transactions On Neural Systems and Rehabilitation Engineering 2023 Electroencephalography Visualization Market research Recording Brain modeling Task analysis Medical diagnostic imaging
10.1109/TNSRE.2023.3246588
6Chikkankod A.V., Longo L. On the Dimensionality and Utility of Convolutional Autoencoder’s Latent Space Trained with Topology-Preserving Spectral EEG Head-Maps Machine Learning and Knowledge Extraction 2022 electroencephalography latent space analysis sliding windowing convolutional autoencoders automatic feature extraction dense neural network
10.3390/make4040053
5Longo L.Modeling Cognitive Load as a Self-Supervised Brain Rate with Electroencephalography and Deep Learning Brain Sciences 2022 cognitive load deep learning self-supervision brain rate convolutional neural network recurrent neural network mental workload EEG bands electroencephalography spectral topology-preserving head-maps
10.3390/brainsci12101416
4Ahmed T., Longo L. Examining the Size of the Latent Space of Convolutional Variational Autoencoders Trained With Spectral Topographic Maps of EEG Frequency Bands IEEE Access 2022 Electroencephalography convolutional variational autoencoder latent space deep learning frequency bands spectral topographic maps neural networks
10.1109/ACCESS.2022.3212777
3Raufi B., Longo L.An Evaluation of the EEG Alpha-to-Theta and Theta-to-Alpha Band Ratios as Indexes of Mental Workload Frontiers Neuroinformatics 2022 human mental workload EEG band ratios alpha-to-theta ratios theta-to-alpha ratios machine learning classification Electroencephalography
10.3389/fninf.2022.861967
2Gómez-Tapia C., Bozic B., Longo L.On the Minimal Amount of EEG Data Required for Learning Distinctive Human Features for Task-Dependent Biometric Applications Frontiers Neuroinformatics 2022 biometrics EEG feature extraction machine learning deep learning graph neural networks Electroencephalography
10.0.13.61/fninf.2022.844667
1Jindala K., Upadhyaya R., Padhyb P.K., Longo L.Bi-LSTM-deep CNN for schizophrenia detection using MSST-spectral images of EEG signals Artificial Intelligence-Based Brain-Computer Interface 2022 bi-directional LSTM Long-Short Term Memory Deep Learning Schizophrenia Spectral analysis Convolutional neural network Electroencephalography
10.1016/B978-0-323-91197-9.00011-4
# Authors Title Details Date Pdf/Links/Bibtex Keywords