π Customer Subscription Churn Prediction Using Usage Patterns
π Project Overview Customer churn is a major challenge for subscription-based businesses. Losing customers directly affects revenue, growth, and customer acquisition costs. This project develops a Machine Learning model to predict whether a customer is likely to churn based on usage behavior, engagement patterns, and subscription details. The goal is to help businesses identify at-risk customers early and take preventive retention actions.
π― Business Objective To build a predictive system that: Identifies customers at high risk of churn
Explains the behavioral reasons behind churn
Supports data-driven customer retention strategies
π Dataset Description The dataset includes customer usage and subscription-related features.
| Feature | Description | Business Relevance |
|---|---|---|
| Usage Hours | Total time spent on the platform | Low usage indicates low engagement |
| Last Login Days | Days since last login | High value shows disengagement |
| Tenure | Number of months as a customer | New users churn more often |
| Payment Failures | Number of failed transactions | Billing issues increase churn risk |
| Subscription Type | Type of plan chosen | Impacts commitment level |
| Churn (Target) | Whether the customer left (1) or stayed (0) | Prediction target |
βοΈ Machine Learning Workflow
1οΈβ£ Data Preprocessing
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Data cleaning and validation
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Feature selection based on business importance
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Train-test split to evaluate model generalization
2οΈβ£ Model Building
Multiple supervised ML models are considered:
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Logistic Regression (baseline model)
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K-Nearest Neighbors (KNN)
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Random Forest Classifier
3οΈβ£ Model Evaluation
Models are assessed using:
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Accuracy
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Precision
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Recall
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Confusion Matrix
These metrics help balance overall performance with the ability to correctly detect churners.
π Model Comparison
| Model | Accuracy | Precision | Recall | Strengths | Limitations |
|---|---|---|---|---|---|
| Logistic Regression | Moderate | Good | Moderate | Simple, interpretable baseline | Limited with complex non-linear patterns |
| KNN | High (training) | Good | Good | Captures local data patterns | Sensitive to scaling, prone to overfitting |
| Random Forest | High | High | High | Handles non-linearity, robust, strong performance | Less interpretable, needs tuning |
Final Model Choice: Random Forest due to strong ability to model complex customer behavior patterns.
πΌ Confusion Matrix Explanation
| Predicted: Stay | Predicted: Churn | |
|---|---|---|
| Actual: Stay | True Negatives (TN) | False Positives (FP) |
| Actual: Churn | False Negatives (FN) | True Positives (TP) |
Business Meaning
True Positives (TP): Correctly identified churners β retention actions possible
True Negatives (TN): Correctly identified loyal users β no unnecessary cost
False Positives (FP): Predicted churn but customer stays β minor extra marketing effort
False Negatives (FN): Missed churners β direct revenue loss π¨
Priority: Minimize False Negatives to prevent unexpected customer loss.
π Key Business Insights
π‘ Engagement Drives Retention
Customers with low usage and long inactivity are more likely to churn.
Action: Re-engagement campaigns and personalized recommendations.
π‘ New Customers Are High Risk
Users with short tenure churn more.
Action: Strong onboarding and early support.
π‘ Payment Issues Trigger Churn
Frequent payment failures strongly correlate with churn.
Action: Improve billing reliability and reminders.
π‘ Churn Is Predictable
Churn is driven by behavioral patterns, not random events.
Action: Use predictive systems for proactive retention.
The model shows signs of overfitting β high training performance but reduced performance on unseen data.
Potential Solutions:
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Cross-validation
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Hyperparameter tuning
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Regularization
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Feature reduction
This highlights awareness of real-world ML challenges.
βοΈ How This Would Work in Production
Step 1: Data Collection
Daily data pulled from:
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App usage logs
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Login systems
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Payment systems
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Subscription databases
Step 2: Feature Engineering
Automated pipelines compute:
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Usage metrics
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Login frequency
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Tenure
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Payment history
Step 3: Prediction System
Customer Data β Feature Processing β ML Model β Churn Risk Score
Each customer receives a probability score indicating churn risk.
Step 4: Business Action Layer
| Risk Level | Action |
|---|---|
| High Risk | Discounts, special offers, support calls |
| Medium Risk | Engagement emails, tutorials |
| Low Risk | No action needed |
Step 5: Monitoring & Retraining
Model performance tracking
Periodic retraining with new data
Continuous improvement cycle
π§ Skills Demonstrated
Data preprocessing
Exploratory data analysis
Supervised ML modeling
Model evaluation techniques
Business insight extraction
Understanding of overfitting
Production-level ML thinking
π Business Impact
If implemented, this system can:
β Reduce churn
β Increase customer retention
β Improve marketing efficiency
β Increase subscription revenue
β Enable proactive decision-making
Limitations:
Model may not generalize to different user populations
Dataset size may limit learning complex behavior
Behavioral trends can change over time (concept drift)
π Conclusion
This project demonstrates how machine learning can convert customer usage data into actionable business intelligence. By predicting churn early, organizations can shift from reactive to proactive customer retention strategies.