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Course Outline

Introduction to Applied Machine Learning

  • Statistical learning versus machine learning
  • Iterative processes and evaluation techniques
  • The Bias-Variance trade-off
  • Supervised versus Unsupervised Learning
  • Challenges addressable through Machine Learning
  • Train, Validation, and Test splits – ML workflows to prevent overfitting
  • The Machine Learning workflow
  • Overview of machine learning algorithms
  • Selecting the appropriate algorithm for specific problems

Algorithm Evaluation

  • Assessing numerical predictions
    • Accuracy metrics: ME, MSE, RMSE, MAPE
    • Stability of parameters and predictions
  • Evaluating classification algorithms
    • Accuracy and its associated limitations
    • Interpretation of the confusion matrix
    • Handling the problem of unbalanced classes
  • Visualizing model effectiveness
    • Profit curve
    • ROC curve
    • Lift curve
  • Model selection strategies
  • Model tuning – grid search approaches

Data Preparation for Modeling

  • Importing and storing data
  • Understanding the data – fundamental explorations
  • Manipulating data with the pandas library
  • Data transformations – Data wrangling
  • Exploratory data analysis
  • Handling missing observations – detection and resolution
  • Outliers – identification and handling strategies
  • Standardization, normalization, and binarization
  • Recoding qualitative data

Machine Learning Algorithms for Outlier Detection

  • Supervised algorithms
    • KNN
    • Ensemble Gradient Boosting
    • SVM
  • Unsupervised algorithms
    • Distance-based methods
    • Density-based methods
    • Probabilistic methods
    • Model-based methods

Understanding Deep Learning

  • Overview of fundamental Deep Learning concepts
  • Distinguishing between Machine Learning and Deep Learning
  • Surveying applications for Deep Learning

Overview of Neural Networks

  • Definition and nature of Neural Networks
  • Neural Networks compared to Regression Models
  • Exploring Mathematical Foundations and Learning Mechanisms
  • Constructing an Artificial Neural Network
  • Comprehending Neural Nodes and Connections
  • Working with Neurons, Layers, and Input/Output Data
  • Understanding Single Layer Perceptrons
  • Differences between Supervised and Unsupervised Learning
  • Learning about Feedforward and Feedback Neural Networks
  • Understanding Forward Propagation and Back Propagation

Building Simple Deep Learning Models with Keras

  • Creating a Keras model
  • Understanding the underlying data
  • Defining the Deep Learning model architecture
  • Compiling the model
  • Fitting the model to data
  • Processing classification data
  • Utilizing classification models
  • Deploying and using trained models

Working with TensorFlow for Deep Learning

  • Data preparation
    • Acquiring the data
    • Preparing training datasets
    • Preparing test datasets
    • Scaling input variables
    • Utilizing Placeholders and Variables
  • Defining the network architecture
  • Implementing the Cost Function
  • Utilizing the Optimizer
  • Applying Initializers
  • Fitting the Neural Network
  • Constructing the computational graph
    • Inference operations
    • Loss calculation
    • Training operations
  • Training the model
    • Graph structure
    • Session management
    • Training loop implementation
  • Evaluating model performance
    • Building the evaluation graph
    • Assessing results via evaluation output
  • Scaling model training
  • Visualizing and evaluating models using TensorBoard

Deep Learning Applications in Anomaly Detection

  • Autoencoders
    • Encoder-Decoder architecture
    • Reconstruction loss calculation
  • Variational Autoencoders
    • Variational inference techniques
  • Generative Adversarial Networks
    • Generator – Discriminator architecture
    • Anomaly Detection (AN) strategies using GANs

Ensemble Frameworks

  • Aggregating results from diverse methods
  • Bootstrap Aggregating
  • Averaging outlier scores

Requirements

  • Proficiency in Python programming
  • Foundational knowledge of statistics and mathematical principles

Intended Audience

  • Software developers
  • Data scientists
 28 Hours

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