Introduction to Deep Learning (Weeks 11) - Machine Learning
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Introduction to Deep Learning (Weeks 11)

Introduction to Deep Learning (Weeks 11)

Deep Learning represents a significant advancement in machine learning, particularly through Neural Networks, which are capable of handling complex, high-dimensional, or unstructured data more effectively than traditional methods. This chapter covers the evolution of Neural Networks from Perceptrons to Multi-Layer Perceptrons (MLPs), emphasizing key concepts such as Activation Functions, Forward Propagation, and Backpropagation. It also discusses Optimizers and provides a practical introduction to building and training MLPs using TensorFlow and Keras.

30 sections

Sections

Navigate through the learning materials and practice exercises.

  1. 6
    Introduction To Deep Learning (Weeks 11)

    This section introduces the fundamentals of deep learning, focusing on...

  2. 6.1
    Neural Network Fundamentals

    This section introduces Neural Networks, detailing their evolution,...

  3. 11.1
    Limitations Of Traditional Machine Learning For Complex Data

    Traditional machine learning algorithms face significant challenges when...

  4. 11.1.1
    Feature Engineering Burden For Unstructured Data

    This section discusses the challenging nature of feature engineering for...

  5. 11.1.2
    Scalability To High Dimensions ('curse Of Dimensionality')

    The 'Curse of Dimensionality' refers to challenges that arise when analyzing...

  6. 11.1.3
    Inability To Learn Hierarchical Representations

    Traditional machine learning struggles with complex, high-dimensional data...

  7. 11.1.4
    Handling Of Sequential/temporal Data

    This section highlights the challenges traditional machine learning models...

  8. 11.2
    Perceptrons To Multi-Layer Perceptrons (Mlps)

    This section introduces the evolution of neural networks from Perceptrons to...

  9. 11.2.1
    The Perceptron: The Simplest Neural Network

    The Perceptron is the foundational building block of neural networks, acting...

  10. 11.2.2
    Multi-Layer Perceptrons (Mlps): The Foundation Of Deep Learning

    Multi-Layer Perceptrons (MLPs) are neural networks comprising multiple...

  11. 11.3
    Activation Functions

    Activation functions are crucial components that introduce non-linearity...

  12. 11.4
    Forward Propagation & Backpropagation (Intuition)

    This section explains the concepts of Forward Propagation and...

  13. 11.4.1
    Forward Propagation: Making A Prediction

    Forward propagation is the process that allows a neural network to make...

  14. 11.4.2
    Backpropagation: Learning From Error

    Backpropagation is the algorithm used by neural networks to learn by...

  15. 11.5
    Optimizers: Guiding The Learning Process

    Optimizers are essential algorithms that adjust weights and biases in neural...

  16. 11.5.1
    Gradient Descent: The Fundamental Principle

    Gradient Descent is an optimization algorithm used to minimize loss in...

  17. 11.5.2
    Stochastic Gradient Descent (Sgd)

    Stochastic Gradient Descent (SGD) is an optimization algorithm that updates...

  18. 11.5.3
    Adam (Adaptive Moment Estimation)

    Adam is a widely used optimizer in deep learning due to its adaptive...

  19. 11.5.4
    Rmsprop (Root Mean Square Propagation)

    RMSprop is an adaptive learning rate optimizer that helps neural networks...

  20. 11.6
    Introduction To Tensorflow/keras: Building And Training Simple Mlps

    This section introduces TensorFlow and Keras, focusing on their role in...

  21. 11.6.1
    What Is Tensorflow?

    TensorFlow is an open-source platform for machine learning, providing tools...

  22. 11.6.2
    What Is Keras?

    Keras is a high-level Neural Networks API designed for fast experimentation...

  23. 11.6.3
    Building And Training Simple Mlps With Tensorflow/keras

    This section outlines how to use TensorFlow and Keras to build and train...

  24. lab
    Constructing And Training Multi-Layer Perceptrons With Different Activation Functions And Optimizers

    This lab focuses on the practical application of building and training...

  25. lab.1
    Prepare Data For Deep Learning

    This section discusses the preparation of data for deep learning,...

  26. lab.2
    Construct And Train A Baseline Multi-Layer Perceptron (Mlp)

    This section focuses on constructing and training a baseline Multi-Layer...

  27. lab.3
    Experiment With Different Activation Functions

    This section explores the vital role of activation functions in neural...

  28. lab.4
    Experiment With Different Optimizers

    This section covers various optimization algorithms used in neural network...

  29. lab.5
    Visualize Training History And Overfitting

    This section focuses on understanding how to visualize the training history...

  30. lab.6
    Final Model Evaluation And Interpretation

    This section highlights the essential steps for evaluating and interpreting...

What we have learnt

  • Neural networks are better suited to handle complex and unstructured data compared to traditional machine learning algorithms.
  • Activation functions introduce non-linearity into the network, allowing it to learn complex relationships in data.
  • The processes of Forward Propagation and Backpropagation are essential for making predictions and learning from errors in neural networks.

Key Concepts

-- Deep Learning
A subfield of machine learning that utilizes Neural Networks to model complex patterns in high-dimensional data.
-- Neural Networks
Computational models inspired by the human brain that consist of interconnected groups of nodes (neurons) which process information using a connectionist approach.
-- Activation Functions
Mathematical equations that determine if a neuron should be activated, introducing non-linear properties to the network.
-- Forward Propagation
The process of passing inputs through the network to obtain an output prediction.
-- Backpropagation
The training algorithm for neural networks that calculates gradients to optimize weights based on prediction errors.
-- Optimizers
Algorithms used to adjust the weights of neural networks based on the gradients from backpropagation to minimize the loss function.
-- TensorFlow
An open-source machine learning library used for numerical computation and building machine learning models.
-- Keras
A high-level API for building and training deep learning models, running on top of TensorFlow.

Additional Learning Materials

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