Course Overview and Prerequisites
Understand the basics of self-supervised learning, including its advantages over supervised methods, and learn how to design tasks that leverage unlabeled data. Identify course prerequisites such as Python and PyTorch knowledge, neural networks, and advanced deep learning concepts to prepare for mastering self-supervised algorithms.
We'll cover the following...
Overview
Training machine learning models often requires large, high-quality, labeled data to achieve better generalization on test data. However, high-quality labeled datasets are difficult to obtain because of their high annotation costs. Furthermore, at times there are tasks for which even gathering data can be difficult (e.g., medical imaging).
This limits the application of supervised learning in practical scenarios where labeled data is absent or present in a limited amount. The course will cover self-supervised learning, a popular AI paradigm. Self-supervised learning works with a huge pool of unlabeled data so the learned representations are transferrable to downstream tasks.
Intended audience
If you are in industry or academia, want to advance your knowledge in machine learning, and want to educate yourself beyond just supervised learning, this course is for you.
After taking this course, you will:
Understand how self-supervised learning works and how self-supervised tasks are created.
Be able to design your self-supervised learning objectives.
Think beyond supervised and unsupervised learning while designing your training pipelines.
Use and tweak existing self-supervised learning objectives to learn from unlabelled data.
Learn how to transfer and evaluate your self-supervised network representations on a downstream task.
Prerequisites
Since the course is built on PyTorch and requires a basic understanding of deep learning and neural networks, we expect readers to have the following:
Basic familiarity with the Python language and the PyTorch framework.
Basic knowledge of neural networks, CNNs, image processing, loss functions, training, and evaluation of models.
Basic knowledge of advanced deep neural networks like GANs, Auto-encoders, Transformers, etc.
