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Course Outline

Introduction to Deep Learning

  • Distinguishing deep learning from traditional machine learning methods
  • Practical applications in computer vision, NLP, and other areas
  • Survey of the deep learning ecosystem: TensorFlow 2.x, Keras, PyTorch
  • Configuring a GPU-accelerated development workspace

The Mechanics of Deep Learning

  • Artificial neurons, activation functions, and network layers
  • Forward propagation and prediction computation
  • Loss functions for classification and regression tasks
  • Gradient descent optimization and backpropagation
  • Training your initial neural network using the MNIST dataset

Convolutional Neural Networks for Computer Vision

  • Gaining insight into convolution, filters, and feature maps
  • Pooling layers and reducing dimensionality
  • CNN architectures: Concepts behind LeNet, VGG, and ResNet
  • Developing and training a CNN for image classification
  • Visualizing learned features and intermediate activations

Data Augmentation and Enhancing Model Accuracy

  • How data augmentation mitigates overfitting and boosts generalization
  • Image transformations: rotation, flipping, zooming, and cropping
  • Creating augmentation pipelines with Keras preprocessing layers
  • Dropout, batch normalization, and additional regularization methods
  • Tracking training progress using validation metrics and early stopping

Transfer Learning with Pre-Trained Models

  • Understanding the concept and benefits of transfer learning
  • Accessing pre-trained models from Keras Applications (ResNet, EfficientNet, MobileNet)
  • Feature extraction: freezing base layers while training new classifiers
  • Fine-tuning: selectively unfreezing layers for domain adaptation
  • Attaining high accuracy with restricted training data

Recurrent Networks and Sequence Modeling

  • Introduction to sequential data and temporal dependencies
  • Recurrent neural networks (RNNs) and the vanishing gradient challenge
  • LSTM and GRU cells for managing long-range dependencies
  • Training a character-level text generation model
  • Word embeddings and the Embedding layer in Keras

Natural Language Processing Fundamentals

  • Text preprocessing: tokenization, padding, and vocabulary construction
  • Developing a text classifier using RNNs and LSTMs
  • Sequence-to-sequence models for machine translation concepts
  • Attention mechanisms and their importance in modern NLP
  • Practical NLP implementation with TensorFlow 2.x text processing APIs

Final Project: Image Captioning

  • Merging computer vision and NLP within a multimodal architecture
  • Extracting image features via a pre-trained CNN encoder
  • Developing an LSTM-based decoder for caption generation
  • Handling multiple input layers in the Keras functional API
  • Training and assessing the end-to-end captioning pipeline

Next Steps and Resources

  • Deploying trained models using TensorFlow Serving
  • Exploring transformer architectures and large language models
  • NVIDIA DLI advanced workshops and certification pathways
  • Community resources, datasets, and project ideas

Requirements

  • Foundational skills in Python programming (functions, loops, dictionaries, arrays)
  • Understanding of programming fundamentals including variables, conditionals, and data structures
  • No previous experience with deep learning or machine learning is necessary

Target Audience

  • Software developers and engineers moving into AI and machine learning fields
  • Data analysts and scientists looking to acquire deep learning competencies
  • Technical professionals aiming to understand and apply neural network models
  • Students and researchers starting their exploration of deep learning
 8 Hours

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