01_MMM |
Introduction - What is Machine Learing - Computational environment - AI assisted programming |
- Burkov, A. (2019) The One Hundred Page Machine Learning Book pp. XX-XX - Rashid, Tariq. (2016) Make Your Own Neural Network. Kindle Edition. pp XX-XX - Machine Learning Theory and Algorithms pp 19-22 - Machine Learning Techniques for Civil Engineering Problems |
01_MMM |
Exploratory Data Analysis |
- Tukey, J (1977). Exploratory Data Analysis. Addison-Wessley (Copy) |
01_MMM |
Data Preparation |
- Chan, J. “Learn Python in One Day and Learn It Well. Python for Beginners with Hands-on Projects.” - Read a file line by line - Read a file line by line (PLR approach) - Reading and writing files - Python Files I/O - Working with files in Python - File handling in Python - File operations in Python - How to read a text file from a URL in Python - Downloading files from web using Python - An Efficient Way to Read Data from the Web Directly into Python without having to download it to your hard drive - Web Requests with Python (using http and/or https) - Troubleshooting certificate errors (really common with https requests) |
01_MMM |
Linear Regression - Ordinary Least Squares |
- Burkov, A. (2019) The One Hundred Page Machine Learning Book pp. 21-25 - Rashid, Tariq. (2016) Make Your Own Neural Network. Kindle Edition. pp XX-XX - Chan, Jamie. Machine Learning With Python For Beginners: A Step-By-Step Guide with Hands-On Projects pp. 106-118. |
01_MMM |
Linear Regression - topic - topic |
- StructuraL Response Prediction Engine to Support Advanced Seismic Risk Assessment - Two-Stage Degradation Assessment and Prediction Method for Aircraft Engines… - Machine Learning Theory and Algorithms pp 22-27 - Applying Regression Analysis to Predict and Classify Construction Cycle Time |
01_MMM |
Optimization Methods - Search Methods - Gradient Methods |
- Applied Dynamic Programming Bellman and Dreyfus (1962) pp. 1-21 - Hooke, R., & Jeeves, T. A. (1961). “Direct Search” Solution of Numerical and Statistical Problems. Journal of the ACM, 8(2), 212–229. - Numerical Optimization by Nocedal & Wright – Chapter 9 - Scipy Optimize Documentation - Powell, M. J. D. (1964). An efficient method for finding the minimum of a function of several variables without calculating derivatives. The Computer Journal, 7(2), 155–162. - Nelder, J.A., and Mead, R. (1965). A simplex method for function minimization. The Computer Journal, 7(4), 308–313. - Press, William H.; Teukolsky, Saul A.; Vetterling, William T.; Flannery, Brian P. (1986). Numerical Recipes: The Art of Scientific Computing. 1ed. New York: Cambridge University Press. pp. 402-406 ISBN 0-521-30811-9. |
01_MMM |
Non-Linear Regression - Low Dimensional Methods |
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01_MMM |
Non-Linear Regression - High Dimensional Methods |
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01_MMM |
Logistic Regression - Logit Regression (binary classes) - Multiple logistic regression - Poisson Regression |
- Stojiljković, M.”Logistic Regression in Python” - Navlani, A. “Understanding Logistic Regression in Python” - Tripathi, M. “Understanding Logistic Regression with Python: Practical Guide 1” - Long, A. “Understanding Data Science Classification Metrics in Scikit-Learn in Python” - “Example of Logistic Regression in Python” - Li, S. “Building A Logistic Regression in Python, Step by Step” - Waseem, M. “How To Perform Logistic Regression In Python?” - Dhiraj, K. “Logistic Regression in Python Using Scikit-learn” - “ML : Logistic Regression using Python”
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01_MMM |
Decision Trees - Classification And Regression Trees - Random Forests (CART Bagging) |
- Decision Trees and Random Forests - Powerful Guide to learn Random Forest (with codes in R & Python) - Simplified Introduction to Random Forests - Using Random Forests in Python with Scikit-Learn - Random Forest Regression in Python - Random Forest Algorithm with Python and Scikit-Learn |
01_MMM |
Nearest Neighbor Methods - Distance Measures K-nearest neighbor |
- Robinson, S. “K-Nearest Neighbors Algorithm in Python and Scikit-Learn” - Brownlee, J. “Develop k-Nearest Neighbors in Python From Scratch” - Brownlee, J. “Four Distance Measures for Machine Learning” - Navlani, A. “KNN Classification using Scikit-learn” - Zoltan, C. “KNN in Python” - Maklin, C. “K Nearest Neighbor Algorithm In Python” - “k-nearest neighbor algorithm in Python” |
01_MMM |
Support Vector Methods - Maximum Margin Classification - Kernel Trick and Common Kernels - Support Vector Regression |
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01_MMM |
Validation Methods - Train/Test Split and Holdout Sets - k-Fold Cross-Validation - Information Metrics |
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01_MMM |
Clustering Methods - K-Means and Variants - Hierarchical Clustering - Density-Based Clustering |
- IBM “Clustering” in Unsupervised Learning |
01_MMM |
Dimension Reduction Methods - Principal Components - Stochastic Embedding - Discriminant Analysis |
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01_MMM |
Classification Feature Engineering - one-hot - ordinal - embeddings |
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01_MMM |
Predictive Feature Engineering - Scaling - Normalization - Interaction(s) |
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01_MMM |
Neural Networks - Deep Learners - Image Analysis (Flat) |
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01_MMM |
Neural Networks - Convolutional Masking - Image Classification |
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01_MMM |
Neural Networks - Stand-alone Packages |
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01_MMM |
Ensemble Methods - Solution stacking - Solution Blending
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01_MMM |
Ensemble Methods - Bagging - Boosting |
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01_MMM |
Time Series Tools - Stationarity and Differencing - Auto/Serial correlation - ARIMA and SARIMA Models |
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01_MMM |
Time Series Tools - Seasonal Decomposition - Exponential Smoothing - TS Feature Engineering |
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