Built to order

Student Performance Prediction using Machine Learning

This project builds a machine-learning model that predicts a student's final grade from study habits, past performance and background factors, using the UCI Student Performance dataset. Framed as an early-warning system, it flags at-risk students after the first assessment period — while there is still time to intervene — and shows which factors drive each prediction so counsellors see reasons, not just scores. An interactive predictor demo and a full analysis of what actually correlates with grades are included. Suitable for B.E./B.Tech final-year projects in AI & Machine Learning, Computer

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The problem

Every term, a predictable fraction of students fails — and most of them were already showing the signs weeks earlier: rising absences, a weak first-period grade, past failures accumulating. Teachers sense this intuitively but cannot quantify it across hundreds of students. This project turns that intuition into a model: trained on the UCI Student Performance dataset (649 students, 33 attributes), gradient-boosted trees predict the final grade G3 from everything known after the first period. The honest headline finding — which the project reports rather than hides — is that past grades dominate the prediction; study time, failures and absences add the rest. The deliverable is positioned carefully as decision support for educators: it flags students for mentoring, never auto-grades or auto-penalizes anyone.

How it works

  1. The UCI student-mat and student-por datasets are merged (649 records, 33 attributes), cleaned and encoded; G3 is the regression target.
  2. Exploratory analysis computes correlations, distributions and the at-risk tail that motivates the early-warning use case.
  3. Gradient-boosted trees (with linear-model and random-forest baselines) are trained with cross-validation; R² and MAE are reported.
  4. Feature importances and partial-dependence views show what the model learned, checked against the published literature.
  5. The predictor demo wraps an interpretable model aligned with the published correlations for instant, explainable estimates.
  6. A binned pass/fail classifier is evaluated for the early-warning operating point (predicted G3 < 10 → mentoring flag).

Tech stack:

  • Python 3, scikit-learn, XGBoost/LightGBM
  • pandas, NumPy
  • Matplotlib, Seaborn-style plots
  • HTML/CSS/JavaScript predictor demo
  • UCI Student Performance dataset

Dataset & model details

  • Dataset: UCI Student Performance (Cortez & Silva, 2008) — 649 secondary-school students (395 mathematics, 254 Portuguese), 33 attributes covering demographics, family background, study habits and school support; target G3 on a 0–20 scale.
  • Task: Regression of final grade G3 (plus binned pass/fail classification for the warning use case); input = 33 attributes, output = predicted grade.
  • Model: Gradient-boosted trees with linear and random-forest baselines; cross-validated.
  • Metrics: R² 0.82, MAE ~1.4 grade points (design targets for the built-to-order training run); reported per subject. No measured figures are claimed before the run.
Parameter Value
Records 649 students, 33 attributes
Target G3 final grade, 0–20
Model R² 0.82 (design target)
MAE Approximately 1.4 grade points (design target)
Warning threshold Predicted G3 < 10 → mentoring flag
Demo Single-page predictor, runs offline

Project features

  • [Final-grade predictor] Enter study time, absences, past grades and background factors; get a predicted G3 (0–20) with a risk band and plain-language guidance.
  • [Per-prediction explanations] The demo shows which factors pushed each prediction up or down, so a counsellor sees reasons, not a black-box number.
  • [Correlation analysis] Published correlations of every attribute with G3, visualized — G1/G2 dominate, demographics trail, reported honestly.
  • [Early-warning framing] Flags students predicted below the pass mark after the first period, with a documented intervention workflow for schools.
  • [Grade-distribution study] The long left tail of failing students is analyzed as the target population for the warning system.
  • [Regression + pass/fail modes] Both the G3 regression and a binned at-risk classifier are trained and compared in the notebook.
  • [Ethics section] The report explicitly scopes the model as mentoring support and documents misuse boundaries.

What is included

  • Data cleaning & exploratory-analysis notebook
  • Model training & comparison notebook (GBM vs baselines)
  • Interactive grade-predictor web demo
  • Correlation, distribution and importance plots
  • Project report PDF (background, dataset, methodology, results, ethics)
  • PPT presentation for final review
  • Viva Q&A preparation document (regression metrics, boosting, leakage, ethics of educational ML)

Limitations & prerequisites

  • R² and MAE are design targets; the report records the actual metrics from the training run for the order.
  • 649 students from two Portuguese schools — generalization to other systems needs local retraining, stated openly.
  • Past grades dominate the prediction; the model cannot foresee sudden personal crises that change a student's trajectory.
  • The demo's interpretable model is illustrative; the shipped notebook trains the full gradient-boosted model on the real data.
  • Positioned strictly as mentoring decision support — the report forbids using it for grading, streaming or disciplinary decisions.

Frequently Asked Questions

What is the UCI Student Performance dataset?

A 2008 release by Cortez and Silva: 649 students with 33 attributes (study time, failures, absences, family background, past grades G1/G2) and the final grade G3 — the standard benchmark for educational performance modeling.

What actually predicts grades best?

Past grades (G1, G2) — correlations ~0.83–0.90. Study time, past failures and absences matter next; demographics matter least. The project reports this honestly instead of overselling exotic features.

How is "at-risk" defined?

Predicted G3 below the pass mark of 10 after the first assessment period — early enough for mentoring to change the outcome.

Why gradient boosting?

Tabular data with mixed categorical/numerical features and non-linear interactions is exactly where boosted trees beat linear models; the notebook shows the baseline comparison.

Isn't predicting student failure unethical?

Used wrongly, yes — which is why the report scopes it strictly as mentoring support with human counsellors in the loop, and documents what the model must never decide.

Is this project suitable for a final-year project?

Yes — for AI/ML, Computer Science and IT programs. It demonstrates regression modeling, honest evaluation, explainability and the ethics of applied ML. Suitable for B.E./B.Tech final-year projects in AI & Machine Learning, Computer Science and IT.

Components & software requirements
  • Python 3, scikit-learn, XGBoost/LightGBM
  • pandas, NumPy
  • Matplotlib, Seaborn-style plots
  • HTML/CSS/JavaScript predictor demo
  • UCI Student Performance dataset

Dataset & model details

  • Dataset: UCI Student Performance (Cortez & Silva, 2008) — 649 secondary-school students (395 mathematics, 254 Portuguese), 33 attributes covering demographics, family background, study habits and school support; target G3 on a 0–20 scale.
  • Task: Regression of final grade G3 (plus binned pass/fail classification for the warning use case); input = 33 attributes, output = predicted grade.
  • Model: Gradient-boosted trees with linear and random-forest baselines; cross-validated.
  • Metrics: R² 0.82, MAE ~1.4 grade points (design targets for the built-to-order training run); reported per subject. No measured figures are claimed before the run.
Delivery information

Built-to-order project. Delivery timeline is shared after order confirmation based on current queue.

Support terms

Complete documentation, setup guide, and viva preparation included. Support for setup and explanation provided.

Download abstract (PDF)

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