Course Outline

1. Understanding Classification Using Nearest Neighbors for Government

  • The k-Nearest Neighbors (kNN) Algorithm
  • Calculating Distance Metrics
  • Selecting an Appropriate Value for k
  • Preparing Data for Use with kNN in Public Sector Applications
  • Why is the kNN Algorithm Considered Lazy?

2. Understanding Naive Bayes for Government

  • Basic Concepts of Bayesian Methods
  • Fundamentals of Probability
  • Joint Probability in Data Analysis
  • Conditional Probability with Bayes' Theorem
  • The Naive Bayes Algorithm and Its Applications
  • Naive Bayes Classification Techniques
  • The Laplace Estimator for Smoothing Probabilities
  • Using Numeric Features with the Naive Bayes Classifier

3. Understanding Decision Trees for Government

  • The Divide and Conquer Strategy in Decision Making
  • The C5.0 Decision Tree Algorithm for Data Analysis
  • Selecting the Best Split Criteria
  • Pruning Techniques to Enhance Model Accuracy

4. Understanding Classification Rules for Government

  • The Separate and Conquer Approach in Rule-Based Systems
  • The One Rule Algorithm for Simple Classifications
  • The RIPPER Algorithm for Generating Complex Rules
  • Deriving Rules from Decision Trees for Improved Accuracy

5. Understanding Regression Analysis for Government

  • Simple Linear Regression Models
  • Ordinary Least Squares Estimation Techniques
  • Correlation Analysis in Data Sets
  • Multiple Linear Regression for Multivariate Analysis

6. Understanding Regression Trees and Model Trees for Government

  • Incorporating Regression into Tree-Based Models

7. Understanding Neural Networks for Government

  • From Biological to Artificial Neurons in Computational Models
  • Activation Functions and Their Role in Neural Networks
  • Network Topology and Architecture Design
  • Determining the Number of Layers in a Neural Network
  • The Direction of Information Flow in Neural Networks
  • Optimizing the Number of Nodes in Each Layer
  • Training Neural Networks Using Backpropagation Techniques

8. Understanding Support Vector Machines for Government

  • Classification Using Hyperplanes for Data Separation
  • Finding the Maximum Margin for Optimal Classification
  • Handling Linearly Separable Data in SVMs
  • Addressing Non-Linearly Separable Data with Kernels
  • Using Kernels to Map Data into Higher-Dimensional Spaces

9. Understanding Association Rules for Government

  • The Apriori Algorithm for Learning Association Rules
  • Evaluating Rule Interest Using Support and Confidence Metrics
  • Building a Comprehensive Set of Rules with the Apriori Principle

10. Understanding Clustering Techniques for Government

  • Clustering as a Machine Learning Task in Public Sector Applications
  • The k-Means Algorithm for Cluster Analysis
  • Using Distance Metrics to Assign and Update Clusters
  • Selecting the Appropriate Number of Clusters for Optimal Results

11. Measuring Performance in Classification Models for Government

  • Working with Classification Prediction Data for Evaluation
  • A Closer Look at Confusion Matrices and Their Components
  • Using Confusion Matrices to Measure Model Performance
  • Beyond Accuracy: Other Measures of Model Effectiveness
  • The Kappa Statistic for Measuring Agreement
  • Sensitivity and Specificity in Diagnostic Testing
  • Precision and Recall Metrics for Classification Models
  • The F-Measure for Balancing Precision and Recall
  • Visualizing Performance Tradeoffs with Graphs and Plots
  • ROC Curves for Evaluating Binary Classifiers
  • Estimating Future Model Performance Through Validation Techniques
  • The Holdout Method for Model Evaluation
  • Cross-Validation Techniques for Robust Model Assessment
  • Bootstrap Sampling Methods for Improved Accuracy

12. Tuning Stock Models for Better Performance in Government Applications

  • Using the caret Package for Automated Parameter Tuning
  • Creating a Simple Tuned Model for Immediate Improvement
  • Customizing the Tuning Process to Fit Specific Needs
  • Improving Model Performance with Meta-Learning Techniques
  • Understanding Ensemble Methods for Enhanced Accuracy
  • Bagging Techniques for Reducing Variance
  • Boosting Methods for Improving Weak Learners
  • Random Forests for Robust Classification and Regression
  • Training Random Forest Models for Government Applications
  • Evaluating the Performance of Random Forests in Real-World Scenarios

13. Deep Learning for Government

  • Three Classes of Deep Learning Architectures
  • Deep Autoencoders for Unsupervised Learning
  • Pre-Trained Deep Neural Networks for Transfer Learning
  • Deep Stacking Networks for Complex Data Analysis

14. Discussion of Specific Application Areas for Government

 21 Hours

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