You may find more information about the kinds of works that are being done in NeuroAILab in these slides.
Dimensionality of Intermediate Representations of Deep Neural Networks with Biological Constraints
It is generally believed that deep neural networks and animal brain solve a vision task by changing the dimen-sionality of input stimuli across deep hierarchy. However, so far the evidence shows that in object recognition task, deep neural networks first expand and then compress the dimensionality of stimuli, while primate brains do the opposite and first compress and then expand the dimensionality of stimuli across deep hierarchy. In this project, it is shown that if two biological constraints - namely the non-negativity of activities and energy efficiency in both activities and weights - are imposed on deep neural networks - the trend of dimensionality across deep neural networks and primate brain matches to each other and in both of these cases the dimension- ality of stimuli is first compressed and then expanded. This result shows that how neuroscience can help better understanding in artificial intelligence.
Code: https://github.com/aslansd/neuroinspired-vision
Slide: https://drive.google.com/file/d/12LeMcfJXpwQBZGZT_LApU8G6Y-H-8ctE/view?usp=drive_link
Future Project:
1) Measuring the inner workings and internal representations in the energy-based networks through top-down theory of prospective configuration realized in the predictive coding networks and in the bottom-up theory of prospective coding realized via physical principle of neuronal least-action.
2) Building affordable analog neuromorphic hardware devices via low-cost ordinary electronic components.