On quantum biology - with Johnjoe McFadden - #13
Theoretical Neuroscience Podcast
Jun 8, 2024
A vintage discussion with Johnjoe McFadden about possible quantum contributions to biological processes, republished as episode 13 of this series.
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Theoretical Neuroscience Podcast
Jun 8, 2024
A vintage discussion with Johnjoe McFadden about possible quantum contributions to biological processes, republished as episode 13 of this series.
Nicolas Perez-Nieves · Imperial College London
Tue, Nov 2, 2021 · 17:10 UTC
The brain has a hugely diverse and heterogeneous nature. The exact role of heterogeneity has been relatively little explored as most neural models tend to be largely homogeneous. We trained spiking neural networks with varying degrees of heterogeneity on complex real-world tasks and found that heterogeneity resulted in more stable and robust training and improved training performance, especially for tasks with a higher temporal structure. Moreover, the optimal distribution of parameters found by training was found to be similar to experimental observations. These findings suggest that heteroge
Emre Neftci · University of California Irvine
Mon, Aug 31, 2020 · 16:55 UTC
The potential of machine learning and deep learning to advance artificial intelligence is driving a quest to build dedicated computers, such as neuromorphic hardware that emulate the biological processes of the brain. While the hardware technologies already exist, their application to real-world tasks is hindered by the lack of suitable programming methods. Advances at the interface of neural computation and machine learning showed that key aspects of deep learning models and tools can be transferred to biologically plausible neural circuits. Building on these advances, I will show that differ