
Explore generative ai with Python from basics to advanced models through hands-on coding. Learn concepts and implement gan, transformers, diffusion models, autoencoders, and normalizing flows, building projects for your resume.
Explore the core concepts of artificial intelligence, from data and algorithms to models and learning, and see how generative AI creates new content.
Explore generative modeling, where a probabilistic model learns from data, adds random noise, and samples to create new images or text; unlike discriminative models, it need not rely on labels.
Build a simple 2d generative model by mimicking p_data and sampling observations. Identify key properties—accuracy, easy generation, and feature interpretability—using a toy-to-map progression.
Learn how representative learning uses a latent space to describe high-dimensional data and map observations back to the original domain, as shown with two-dimensional tins.
Explore core probability concepts for generative modeling, including the sample space, density function, and likelihood, and apply maximum likelihood estimation to identify parameters that explain observed data.
Explore basics of the coding environment for generative AI with Python: clone GitHub repo, install Git, Docker, and run notebooks on CPU or GPU with Keras, TensorFlow, PyTorch, Jax.
Install git and docker, clone the repository for Generative AI with Python, verify the clone, and prepare the environment for Docker and future Anaconda setup.
Set up the anaconda ide, create a TensorFlow environment, install TensorFlow and Keras, and test with a Jupyter notebook to verify installation.
Explore the basics of deep neural networks, including input, hidden, and output layers, neurons, edge weights, and activation functions; learn how a learning algorithm trains the network to recognize patterns.
Explore building a multilayer perceptron for CIFAR-10 image classification with TensorFlow, using dense layers with ReLU and softmax, one-hot encoding, and train/test splits.
Explore how convolutional neural networks learn spatial hierarchies of features using 2D convolutions, strides, and padding, then stack layers with batch normalization and dropout for robust image classification.
Learn how autoencoders enable generative modeling by encoding fashion MNIST images into a 2D latent space and decoding them back with a Keras TensorFlow model.
Explore variational autoencoders, mapping images to a multivariate normal latent space with a sampling layer and KL divergence loss in a keras build to generate new images.
Learn to design and train a deep convolutional GAN in Keras, generating 64x64 lego brick images from latent space inputs while mastering generator and discriminator training and common DCGAN challenges.
Explore the Wasserstein GAN with gradient penalty (WGAN-GP) to stabilize training, build from scratch in Keras, and generate faces while addressing discriminator strength, mode collapse, and training challenges.
Explore how a conditional GAN uses label conditioning to control generated images, such as blonde vs non-blonde hair. Implement it in Keras with one-hot labels and a critic input.
Explore autoregressive models, with LSTM at the core, for text generation and explicit data modeling in sequential data. Learn text preprocessing, tokenization strategies, and embedding-based RNN architectures in Keras.
Explore stacked LSTM extensions, GRU gates, and bidirectional layers to learn deeper text representations. Delve into PixelCNN with masked convolutions and residual blocks for autoregressive image generation on Fashion-MNIST.
Explore normalizing flow models, connecting their invertible mappings to variational autoencoders and autoregressive models, and learn how the change of variables with the jacobian determinant enables tractable sampling.
Explore real NVP normalizing flow models, using coupling layers to transform a 2d two moons dataset into a simple gaussian, with invertible mappings and easy jacobian determinants.
Explore energy-based models and their Boltzmann-based scoring, learn to sample with Longeverne dynamics, and train with contrastive divergence using a replay buffer on MNIST data.
Explore diffusion models for image generation, including forward noising and denoising with a Keras-based U-Net. Learn about cosine diffusion schedules and EMA training on the Oxford 102 flower dataset.
Explore transformers and attention for text generation, build a mini GPT in Keras with the wine reviews dataset, and learn pre-training, fine-tuning, and causal masking.
Explore progressive training with ProGAN to generate images, analyze StyleGAN, StyleGAN2, and self-attention GAN architectures, and learn key concepts like adaptive instance normalization, weight modulation, demodulation, and path length regularization.
Explore style-based image generation with StyleGAN and StyleGAN2, including mapping z to w, injecting style vectors at multiple layers, style mixing, stochastic noise, and artifact-reducing weight modulation and skip connections.
Step into the future of technology with our hands-on AI and Generative Deep Learning course! From understanding the foundations of AI and probability theory to building advanced neural networks and generative models like GANs, VAEs, and Diffusion Models, this course equips you with the skills to create cutting-edge AI applications.
Learn by doing: set up your environment with Git, Docker, and IDEs, implement ANNs, CNNs, LSTMs, and master representation learning. Dive into generative architectures and see your ideas come alive through music generation, advanced GAN projects, and transformer-based applications.
Whether you’re an aspiring AI engineer, researcher, or tech enthusiast, this course turns complex concepts into hands-on projects, making you industry-ready. Unlock your potential, create AI-driven solutions, and be part of the next generation of AI innovators!
Gain deep insights into probability theory, coding environments, and the latest AI techniques. Explore real-world applications, improve your programming skills, understand model deployment, and learn best practices for optimizing model performance. By the end, you will confidently design, train, and evaluate generative models, turning your ideas into tangible, innovative projects that can impress both academia and industry.
Why Enroll?
Hands-on projects from setup to deployment
Learn cutting-edge generative AI models
Step-by-step guidance for real-world applications
Perfect for beginners and advanced learners alike
Enhance your portfolio with unique, creative AI projects