Data Science Level: Intermediate

Machine Learning for Insurance

การประยุกต์ใช้การเรียนรู้ของเครื่องในธุรกิจประกันภัยและวิทยาศาสตร์ข้อมูล

Bridging traditional actuarial science with modern data science: XGBoost, LightGBM, neural networks, fraud detection, customer churn, and interpretable ML.

Gradient Boosted Decision Trees Objective
y^i=∑k=1Kfk(xi),fk∈F\hat{y}_i = \sum_{k=1}^K f_k(x_i), \quad f_k \in \mathcal{F}

Course Registration & Inquiry

Available as individual mentorship, group cohort, or in-house corporate training tailored to your team's dataset.

Lecturer Yodharin Monplub
Format Online / On-site / Hybrid
Prerequisites Basic Statistics / Excel
Enroll via LINE (@actuarialtutor) Email Course Inquiry

Comprehensive Course Syllabus & Learning Modules

1

1. Overview of Machine Learning in Insurance

  • Comparison between GLM vs Machine Learning in an actuarial setting
  • Supervised vs unsupervised learning workflows in insurance operations
  • The end-to-end model development lifecycle: from data pipeline to production API
2

2. Data Preparation for Insurance Modeling

  • Handling high-cardinality categorical features (Vehicle make/model, postal code, ICD-10 codes)
  • Imbalanced classification techniques (SMOTE, Focal Loss, threshold tuning)
  • Preventing data leakage and handling temporal splits in insurance datasets
3

3. Tree-Based Ensemble Models & Regularization

  • Random Forests, Gradient Boosting Machines, XGBoost, LightGBM, and CatBoost
  • Poisson and Gamma deviance loss functions for insurance loss cost prediction
  • Hyperparameter optimization using Optuna and cross-validation
4

4. Applications in Life & Health Insurance

  • Predictive underwriting and accelerated policy approval
  • Predicting lapse, surrender, and policy persistency with survival analysis
  • Hospitalization claim cost forecasting and chronic disease progression models
5

5. Applications in Non-Life & Claims Management

  • Telematics driving score modelling for usage-based auto insurance (UBI)
  • Automated fraud detection using anomaly detection and graph algorithms
  • Estimating ultimate claim severity at first notice of loss (FNOL)
6

6. Model Explainability & Governance (XAI)

  • SHAP (Shapley Additive exPlanations) values for individual prediction explanations
  • Partial Dependence Plots (PDP) and Accumulated Local Effects (ALE)
  • Compliance with insurance regulation, fairness, transparency, and bias audits
7

7. Workshops (การฝึกปฏิบัติ)

  • Python workshop: Motor frequency-severity prediction with LightGBM and Tweedie regression
  • Building a claims fraud detection model with SHAP explanations dashboard