Values and ranges shown are for illustrative purposes only.

Interactive Learning Experience

Understanding the University Simulator

Key Capabilities

Modeling in Today's Uncertain and Complex Higher Education Landscape

A purpose-built simulator designed to navigate complexity and support strategic decision-making.

Probabilistic Enrollment Forecasting

Model student enrollment as probability distributions, capturing the full spectrum of possible outcomes for each cohort.

Causal Inference Analysis

Isolate the true impact of policy decisions by modeling cause-and-effect relationships between institutional levers and outcomes.

Confidence Intervals & Risk Ranges

See the full range of possible outcomes with statistical confidence bands, enabling risk-aware decision making.

Transparent, Explainable Logic

Every forecast is traceable—understand exactly how inputs flow through the model to produce results stakeholders can trust.

The Solution

Three Engines Working Together

The simulator combines three specialized engines, each handling a different piece of the puzzle.

The simulator orchestrates sequential academic, enrollment, and financial engines to build a full projection.

Engine 1

Enrollment Engine

Models enrollment probabilistically using a Markov chain for progression.

Student Flow Visualization

Student flow Sankey diagram showing progression from Freshmen through Sophomores, Juniors, Seniors to Graduates, with withdrawals at each stage

The Markov chain models the probability of students advancing year‑to‑year (or withdrawing) using transition rates.

Combined with Gaussian Process Regression for new‑student inflow, capturing uncertainty across scenarios.

Engine 2

Financial Engine

Uses Causal Inference to answer "what if" questions. This engine isolates the true impact of policy decisions by modeling cause-and-effect relationships.

Lever Impact Simulator

3%

Higher tuition increases revenue but may affect enrollment

5%

More aid attracts students but impacts revenue

Projected Operating Margin
+9.2%
Healthy (5%+)
At Risk (0-5%)
Deficit

How it works: The engine uses Directed Acyclic Graphs (DAGs) and Bayesian Causal Estimation to isolate true cause-and-effect relationships, accounting for confounding factors like economic conditions.

Engine 3

Risk Engine

Uses Monte Carlo Simulation to run thousands of "what-if" scenarios, revealing the full range of possible outcomes and their likelihood.

Monte Carlo Simulation

Click to simulate possible futures

10%5%0%-5%-10%
Today
202620272028202920302031

90% Confidence Interval

0.0%
5th Percentile (Worst Case)
0.0%
Median (Expected)
0.0%
95th Percentile (Best Case)

There's about a 90% chance the actual margin lands between ‑8.7% and 8.7%. That range is built to stay reliable without making heavy statistical assumptions.

Control Panel

Institutional Levers

Levers that allow us to connect between Revenue & Expense

Financial Levers

Revenue streams and cost management

Student Levers

Financial aid strategy and retention investment

Academic Levers

Optimize teaching capacity, program mix, and workforce

All Levers Feed Into the Simulator Simultaneously

Financial
Student
Academic
Simulator
Enrollment Engine
Financial Engine
Risk Engine
Engines are coordinated in sequence to build the full projection.

Levers are applied together, then the engines run in sequence to build the full projection.

Note: Values and ranges shown are for illustrative purposes only.