Title : Is brain just a machine?
Abstract:
The presentation starts by discussing issues related to Behavioural and Cognitive Neuroscience Next- Gen BCIs, Digital Biomarkers and Organoid Intelligence.
Emerging technologies like machine vision, high-density silicon probes, optogenetics, and artificial intelligence are transforming behavioural neuroscience.
These tools allow scientists to capture complex animal and human behaviours with high precision while simultaneously recording and manipulating large-scale neural population activity. Artificial intelligence is increasingly being integrated with neurophysiological tools like Electroencephalography (EEG) and Functional Near-Infrared Spectroscopy (fNIRS) to create "neuroadaptive" systems.
The future of cognitive neuroscience is not merely a story of technological advancement; it is a profound invitation to rethink the nature of learning, identity, and human potential. As we develop tools that can read, adapt to, and interact with the brain’s intricate dynamics, our greatest challenge will not be engineering smarter algorithms, but cultivating the philosophical wisdom and ethical frameworks necessary to ensure these technologies elevate, rather than diminish, the human experience.
Social neuroscience is moving from “brains in isolation” to “brains in context, in interaction, and in networks.” Four pillars: computational methods, naturalistic paradigms, hyperscanning and social-world embedding.
On the more speculative frontier, researchers are exploring "organoid intelligence"—the use of lab-grown, three-dimensional human brain cell cultures integrated with silicon-based computing systems. While still in its infancy, this bio-hybrid approach challenges our traditional definitions of computation and cognition, potentially offering unprecedented models for studying learning and memory at a cellular level.
Computer vision and pattern recognition are currently the most impactful implementations of AI in neurology. Machine learning algorithms can now analyse MRI scans, CT scans, and EEGs with remarkable precision, often in a fraction of the time it takes a human.
Spotting the Invisible: AI excels at identifying subtle, early-stage abnormalities in brain tissue that might be too small for the human eye to catch. This is proving critical for the early detection of Alzheimer's disease, brain tumours, and subtle signs of a stroke.
Faster Scans: New AI-powered image reconstruction systems (like deep resolve technologies) are dramatically accelerating how fast MRI scans can be completed while improving image clarity.
I will then dissect concepts like, Bio-Hybrid Computing, AI in Neurology, Brain -Reading AI, Social Neuroscience and Naturalistic Neuroscience. The keynote will move on to tackle issues like Hyperscanning, Neuroscience and Sensor Technology, Neuroinformatics, Neuro-Embodied AGI and Computational Brain Models. Finally, I will present areas like, Neuro-Symbolic Brain Models, Quantum Brain Computation and Neurorobotics.


