What tools are necessary to unlock its secrets?
inform machine learning?
the way teens learn?
the way teens learn?
How does the brain function? What tools are necessary to unlock its secrets?
How can discoveries in neuroscience inform machine learning?
The human brain is arguably the most complex biological structure on the planet. Over the past 30 years, we have transformed our understanding of the biology of the brain, as new methods and revolutionary new tools have been developed to explore its structure and functioning. Moving beyond molecular analysis, neuroscience is now investigating networks of neurons whose concerted actions underlie the complexity of the human condition – thought, behavior, memory, self-awareness, language, and the full range of emotions from anger and despair to contentment and joy.
To lead the way, Columbia has established a comprehensive institute for the pursuit of interdisciplinary and collaborative research in brain science. The Mortimer B. Zuckerman Mind Brain Behavior Institute, with founding leadership from A&S faculty, is expanding the realm of traditional neuroscience to encompass other fields that will inform and expand our understanding of the brain.
Unraveling the details of how these networks function and how they encode human thought, behavior, and emotion lies before us. Within the Arts & Sciences, we are exploring key questions about the brain and how best to study it, including:
By pioneering optical imaging methods that have revolutionized neuroscience, Columbia researchers are having a major impact on modern neuroscience. In fact, the Brain Research through Advancing Innovative Neurotechnologies (BRAIN) Initiative was proposed by a Columbia scientist. We recently established the NeuroTechnology Center which brought together a dozen laboratories, spanning optical and molecular engineering, nanofabrication, and computational approaches. This group stands to become a major leader within the BRAIN Initiative and keep Columba at the forefront of neuroscience methods development.
Columbia researchers across disciplines are working to understand the foundations of intelligence and computation. Integrating data science and neuroscience, they are comparing artificial computational systems with biological computational systems to extract shared principles and generate new ideas for exploration. Machine learning is advancing rapidly on the tide of deep neural network architectures, which currently bear little resemblance to true neural systems. Scientists at Columbia are leading the way to better understand the mind and machines.
At Columbia, we are investigating how our brains shape who we are and how we interact as a society. Breakthroughs in brain imaging are offering unprecedented insight into the biological principles underlying the complexity of human thoughts and behaviors. These discoveries have the potential to transform our understanding of what it means to be an individual in a social world – from classroom learning to economic decision-making. Columbia University scientists are now in a unique position to better understand who we are – from neurons, to brain circuits, to society.
Yuste, the director of the Neuro Technology Center and co-director of the Kavli Institute of Brain Science, has pioneered the development and application of optical methods to understand how neural circuits in the cerebral cortex work.
By determining the molecular signatures of Alzheimer’s, CTE, and other conditions, the research team will pave the way for treatments that target hallmarks of neurodegenerative disease.
Raju Tomer, assistant professor of biological sciences, studies the development of novel technologies required for cellular-resolution whole-brain mapping and functional analysis of normal and diseased states.