Brain-to-Computer Interfaces: Using Machine Learning and Deep Learning - Tapa dura

Acerca del autor

Tawseef Ahmed Teli, PhD is an Assistant Professor in the Higher Education Department at Government Degree College Anantnag, Jammu and Kashmir, India. He holds a PhD in computer science from the University of Kashmir, with research spanning machine and deep learning, IoT, autonomous systems, robotics, drug discovery, and network security.

Syed Immamul Ansarullah, PhD is an Assistant Professor in the Department of IMBA at the University of Kashmir. He holds a PhD in machine learning and AI and publishes actively at the intersection of soft computing, data mining, and cybersecurity.

Arun Kumar Rana, PhD is an Assistant Professor at Galgotias College of Engineering. He brings more than 16 years of teaching and research experience, with more than 30 SCI-indexed papers, ten granted patents, and domain strength in image processing, IoT, and wireless sensor networks.

Suman Lata Tripathi, PhD is a Professor at the Symbiosis Institute of Technology with more than 22 years in academia. She has published more than 141 peer-reviewed publications, 14 Indian patents, and serves as a book series editor.

Kashif Nisar, PhD is a Lecturer in Information Technology at Swinburne University of Technology. He is a Senior IEEE Member, Dean's Award-winning lecturer, and cybersecurity specialist with a PhD from Universiti Teknologi Petronas and postdoctoral training at Auckland University of Technology, New Zealand.

De la contraportada

Unlock the future of human-computer interaction with this comprehensive guide that seamlessly bridges the gap between neuroscience and practical implementation, delivering a unified, multi-modality framework to build and deploy the next generation of thought-controlled technology.

What if the most powerful interface you will ever use requires no keyboard, no screen, no voice, just thought? Brain-computer interfaces are making this a reality, and brainwave-to-machine commands are the comprehensive technical roadmaps to understanding, building, and deploying them. These innovative technologies provide previously unheard-of opportunities for control, rehabilitation, and communication by bridging the gap between the human brain and external equipment.

This book presents the fundamentals of neuroscience that make brain-computer interfaces possible, covering the electrical language of neurons, the recording modalities that capture it, and the preprocessing pipelines that transform raw brainwaves into analysis-ready data. From that foundation, it builds systematically through classical machine learning algorithms, convolutional neural networks for spatial EEG pattern recognition, and long short-term memory-based recurrent architectures for decoding the temporal dynamics of brain activity, always anchored to real implementation, not just theory. Dedicated chapters and case studies address neurorehabilitation for stroke and spinal cord injury recovery, early detection of dementia, and the convergence of brain-computer interfaces with augmented and virtual reality. Competing titles either restrict themselves to a single modality or a single technique; This book refuses that narrowness, delivering a unified framework that moves from algorithm design to sustainable hardware deployment. This essential guide is both a rigorous graduate-level text and an enduring reference for the researchers, engineers, and clinicians who will shape the future of human-computer interaction.