
Explore how gradient descent minimizes the cost and reaches a local minimum, tune learning rates, compare batch and stochastic gradient descent, and review backpropagation in a simple feedforward neural network.
Explore how long short-term memory networks solve long-term dependency problems in recurrent neural networks, detailing forget gates, update gates, and cell state dynamics for time series modeling in PyTorch.
Install CUDA toolkit 11.7 locally for PyTorch on Windows or Linux, following the start locally guide, verify installation, and note that Mac cannot use CUDA in PyTorch outside Colab.
Learn to build a simple generative AI for image generation in Colab using PyTorch, torchvision, and MNIST data, converting images to tensors and preparing a train data loader.
Train the discriminator by generating fake data from random noise through the generator, compare real and fake data with labeled targets, and update the discriminator via backpropagation and its optimizer.
Learn to prepare time series temperature data for a PyTorch-based generative AI model by building 30-day sequences, converting to tensors, and creating a data loader.
Train the generator by sampling noise, producing fake data, evaluating it with the discriminator, and backpropagating BCE loss to update the generator via its optimizer.
Learn to evaluate a training process by computing and printing the average generator and discriminator losses per epoch, using a data loader, and preparing for synthetic data generation.
Train a generative AI model to produce synthetic temperature data by passing random noise to the generator, then compare actual and generated data and assess with MSE, MAE, and correlation.
Prepare data for conditional gan training by downloading, extracting, and organizing the 102-category Oxford flowers dataset, including image labels and PyTorch data pipelines in Colab.
Develop a conditional discriminator that mirrors the generator and uses a label embedding, flattening the generated image and concatenating the label before a leaky ReLU classifier.
Prepare data for the discriminator and generator, then run their training loops in PyTorch. Define latent time, label time, 102 classes, and 100 epochs.
Learn to generate and display images with a conditional convolutional GAN in PyTorch, from noise and label setup to evaluating convolutional versus linear outputs.
Explore ethics in generative AI across the model life cycle, focusing on privacy, security, fairness, accountability, and avoiding misinformation and deepfakes.
Dive into the transformative world of Generative AI with this comprehensive course on Generative Adversarial Networks (GANs) using PyTorch. This course is designed to provide a deep understanding of GANs and their applications, blending theoretical knowledge with extensive hands-on experience.
What You'll Learn:
Core GAN Concepts: Grasp the fundamentals of GANs, including the dynamics between the Generator and Discriminator networks, and understand how they collaborate to create realistic outputs.
Advanced Model Development: Gain practical experience in building and training sophisticated GAN models from scratch using PyTorch. Learn to implement Convolutional Neural Networks (CNNs) for both Generator and Discriminator, and discover how to refine these models for enhanced performance.
Complex Data Generation Techniques: Explore how to integrate complex models such as Long Short-Term Memory (LSTM) networks into GAN frameworks to generate time series and sequential data. Understand the synergy between LSTMs and GANs to create high-quality synthetic data.
Text-to-Image Synthesis: Delve into advanced GAN techniques for generating images from textual descriptions. Learn how to combine textual input with visual data to produce accurate and engaging visual representations.
Ethical Considerations: Engage in discussions about the moral implications of generative AI technologies. Understand the potential impact of GANs on privacy, misinformation, and the ethical use of synthetic data.
Hands-On Coding Experience: Work on real-world projects with step-by-step guidance. You’ll write and debug code collaboratively, with detailed line-by-line explanations of the purpose and function of each line. Learn to troubleshoot and optimize your GAN models for better results.
Who Should Enroll:
This course is ideal for aspiring data scientists, machine learning engineers, and Python developers who want to expand their expertise in generative models. It is also suitable for researchers and practitioners in computer vision and those interested in the ethical dimensions of AI. Whether you're new to GANs or looking to deepen your knowledge with advanced techniques and ethical insights, this course provides the tools and understanding to apply generative AI effectively in real-world scenarios.
Join us to master GANs, leverage complex models for innovative data generation, and gain practical, hands-on experience with detailed debugging and code explanations!