Decentralized AI + science




Neurotechnology seeks to understand the functioning of the human nervous system and how it can be used to develop technology-based solutions for neurological and neuropsychiatric disorders, as well as for improving human abilities and experiences. It encompasses a wide range of applications, including the development of cure for neurological and neuropsychiatric disorders, the ability to control technology with the brain, to enhance human memory, creativity, and self-awareness, and to experience virtual reality and more. The field combines the principles of neuroscience, engineering, and computer science, with the aim of creating new tools and techniques for studying the brain, as well as for improving the quality of life of individuals affected by neurological and neuropsychiatric conditions.

Why neurotech matters (Inspired by Juan Benet amazing talk).

In an era where human augmentation and the merging of biology with technology are not just science fiction but impending realities, NeuroTech emerges as a field of critical importance. This technology goes beyond mere gadgetry; it represents a fundamental shift in how we interact with, understand, and improve ourselves. Neurotechnology promises to unlock the deepest mysteries of the human brain and enable previously unimaginable capabilities. By interfacing with the nervous system, we can both repair neurological functions and enhance innate biological capacities. The possibilities stretch from overcoming paralysis to augmenting intelligence, from curing blindness to exploring new sensory domains. This vast frontier requires us to reimagine the boundaries of human potential.

Understanding the brain Advances in neuroimaging, sensing, and data analysis have given us unprecedented views into the workings of the brain. New high-resolution scanning techniques reveal increasingly fine-grained neural anatomy and activity. Implanted sensors and advanced signal processing let us decode neurons’ complex electrical chatter. Using powerful machine learning methods, we can now translate raw neurological data into insights about cognition and behavior. We stand at the threshold of creating detailed maps of the brain, elucidating how its physiology gives rise to thought and consciousness. This foundational knowledge will drive rapid progress in both therapy and enhancement.

Repairing Ourselves: Neural interfaces and technologies have the potential to repair damaged neurological functions, offering hope for conditions that are currently considered intractable. For conditions from Alzheimer’s to paralysis, we now have paths to develop targeted interventions, made possible by a deeper understanding of neural substrates. Gene therapies may arrest or even reverse neurodegeneration by altering disease-related pathways. Stem cell grafts and brain-machine interfaces can forge new connections across damaged circuitry, restoring motor control and cognitive capacity. As we refine our ability to monitor and stimulate the nervous system, we gain precision tools to recalibrate misfiring networks, overcoming disorders of perception, emotion, and more. Where pharmaceuticals have fallen short, the jeweler’s eye of bioelectronic medicine promises restorative solutions.

Augmenting Ourselves: Beyond therapy lies the possibility of enhancement, transcending our biological limits through applied neurotechnology. Nanoimplants and neural dust could provide direct, high-bandwidth brain-computer integration, enabling augmented reality and AI symbiosis. Such seamless interfaces would give rise to radically amplified cognition, memory, and learning. Visual and auditory technologies can unveil new sensory domains, while targeted stimulation grants improved motor control and strength. Ultimately, we may gain the ability to self-regulate mood and motivation at will. The future of neurotech is one of boundless human potential.

Digitizing Ourselves: In digitizing and analyzing patterns of neural activity, we can capture and preserve the essence of cognition itself. Detailed brain emulation could lead to replicable models of individual minds, with profound implications. We may come to know ourselves at the deepest level by empirically deriving the links from neurons to intelligence and consciousness. Whole brain simulations will enable societal and economic forecasting, while digital embodiments could achieve a form of immortality. Neurotechnology promises understanding of that most profound frontier - our own minds.

Expanding our horizons and surviving existential risks: NeuroTech may play a role in safeguarding humanity against existential risks (X-risks), from AI misalignment to biological pandemics, by enhancing our intelligence and decision-making capabilities. Brain-computer integration can enable rapid adaptation to changing conditions, allowing us to meet emerging challenges. Such synthetic intellect may also seed the growth of beneficial intelligence, aligned with human values. As we contemplate travel to harsh environments on or even beyond Earth, neurotech can push the limits of our endurance. By revealing the brain’s code, we gain insight into our past evolution while guiding future advancement. Neurotechnology harbors immense possibility, spurring imagination beyond the bounds of biology. With vision and rigor, we will chart a path to extraordinary horizons.

Health and Restoration

Enhancement of Abilities

Connectivity Enhancements

Understanding Ourselves

Expanding Our Horizons

Goals of Neurotech (collected by Milan Cvitkovic)

Neurological disease

Neuropsychiatric disorders

Being your best self

New Qualia







Ed Boyden | Tools for Mapping and Controlling the Brain

The Future Of Brain-Computer Interfaces | Milan Cvitkovic & Juan Benet | Breakthroughs In Technology

Ed Boyden, Optogenetics