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CPCU CPCU 550Maximizing Value with Data and Technology

CPCU
2 hours·85 multiple-choice (a handful may be unscored pretest items)·65 study hours

Overview

CPCU 550 introduces data and technology as a competitive tool: the data analytics lifecycle (define the problem, collect/clean data, analyze, communicate, deploy, monitor), the descriptive/predictive/prescriptive analytics continuum, big data sources including telematics, IoT sensors, and unstructured text/image data, an accessible introduction to machine learning (supervised vs. unsupervised, classification vs. regression, overfitting/underfitting), model evaluation metrics, and the ethical and privacy issues in using data and AI across underwriting, claims, and marketing.

Duration
2 hours
Questions
85 multiple-choice (a handful may be unscored pretest items)
Style
Computer-based, 4 answer choices, scenario-based stems
Credit
One of the CPCU program's course requirements
Passing
Scaled score; approximately 60/100 is the pass threshold set by The Institutes

Syllabus map

Data analytics lifecycle & data governance
20%
Descriptive, predictive & prescriptive analytics
20%
Big data sources & emerging technology (telematics, IoT, AI)
20%
Machine learning fundamentals (supervised/unsupervised)
20%
Model evaluation metrics
10%
Data ethics & privacy
10%

Key formulas

Confusion-matrix metrics for a binary classifier: Accuracy=TP+TNTP+TN+FP+FN,Precision=TPTP+FP,Recall (sensitivity)=TPTP+FN\text{Accuracy}=\frac{TP+TN}{TP+TN+FP+FN},\quad \text{Precision}=\frac{TP}{TP+FP},\quad \text{Recall (sensitivity)}=\frac{TP}{TP+FN}

Lift: how much better a model identifies positives than a random selection of the same size: Lift=Response rate in targeted decileOverall response rate\displaystyle \text{Lift}=\frac{\text{Response rate in targeted decile}}{\text{Overall response rate}}.

Overfitting intuition: as model complexity rises, in-sample error keeps falling but out-of-sample (holdout) error eventually rises — the gap between the two is the overfitting signal.

Bias-variance framing (conceptual): Expected errorBias2+Variance+Irreducible error\text{Expected error}\approx \text{Bias}^2+\text{Variance}+\text{Irreducible error}; simple models are high-bias/low-variance, complex models are low-bias/high-variance.

Study strategy

  1. Learn the stages of the analytics lifecycle in order — sequencing questions are common.

  2. Be able to classify a described technique (regression, decision tree, clustering) as supervised or unsupervised and as classification or regression.

  3. Memorize the confusion-matrix metrics (accuracy, precision, recall) and be ready to compute one from given TP/FP/TN/FN counts.

  4. Understand overfitting conceptually: a model that fits training data almost perfectly but performs poorly on new data.

  5. Review telematics and IoT examples (usage-based auto insurance, connected home sensors, wearables) and how each changes underwriting or claims.

  6. Know the core data-ethics concerns: proxy discrimination, explainability, consent, and data security/privacy regulation.

Common traps

  • Confusing supervised learning (labeled outcome, e.g., predicting claim cost) with unsupervised learning (no labeled outcome, e.g., customer segmentation/clustering).

  • Treating a high in-sample accuracy as proof a model will generalize well — ignoring holdout/out-of-sample validation.

  • Mixing up precision (of predicted positives, how many are correct) and recall (of actual positives, how many were found).

  • Assuming more data automatically means better decisions without addressing data quality and governance.

  • Overlooking that a facially neutral variable correlated with a protected class can still create proxy discrimination.

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