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MATH 6380P. Advanced Topics in Deep Learning |
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Course Information |
This course is a continuition of Math 6380o, Spring 2018, inspired by Stanford Stats 385, Theories of Deep Learning,
taught by Prof. Dave Donoho, Dr. Hatef Monajemi, and Dr. Vardan Papyan, as well as the Simons Institute program on
Foundations of Deep Learning in the summer of 2019 and IAS@HKUST workshop on
Mathematics of Deep Learning during Jan 8-12, 2018.
The aim of this course is to provide graduate students who are interested in deep learning a variety of understandings
on neural networks that are currently available to foster future research.
Prerequisite: there is no prerequisite, though mathematical maturity on approximation theory, harmonic analysis, optimization, and statistics will be helpful.
Do-it-yourself (DIY) and critical thinking (CT) are the most important things in this course. Enrolled students should have some programming experience with modern neural networks, such as PyTorch, Tensorflow, MXNet, Theano, and Keras,
etc. Otherwise, it is recommended to take some courses on Statistical Learning (Math 4432 or 5470), and Deep learning such as
Stanford CS231n with assignments, or a similar course COMP4901J by Prof. CK TANG at HKUST.
Theories of Deep Learning, Stanford STATS385 by Dave Donoho, Hatef Monajemi, and Vardan Papyan
Foundations of Deep Learning, by Simons Institute for the Theory of Computing, UC Berkeley
On the Mathematical Theory of Deep Learning, by Gitta Kutyniok
Python-Numpy Tutorials by Justin Johnson
scikit-learn Tutorials: An Introduction of Machine Learning in Python
Deep Learning: Do-it-yourself with PyTorch, A course at ENS
Manning: Deep Learning with Python, by Francois Chollet [GitHub source in Python 3.6 and Keras 2.0.8]
MIT: Deep Learning, by Ian Goodfellow, Yoshua Bengio, and Aaron Courville
Wed 3:00PM - 5:50PM, Zoom
No exams, but extensive discussions and projects will be expected.
| Date | Topic | Instructor | Scriber |
| 09/09/2020, Wednesday | Lecture 01: Overview I [ slides ]
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Y.Y. | |
| 09/16/2020, Wednesday | Lecture 02: Symmetry and Network Architectures: Wavelet Scattering Net, DCFnet, Frame Scattering, and Permutation Invariant/Equivariant Nets [ slides ] and Project 1.
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