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The following are the available tutorials:
Dynamic Stochastic General Equilibrium (DSGE) models are at the core of modern macroeconomic research. They provide a rigorous framework to analyze how households, firms, and governments interact under uncertainty, and they are widely used for policy evaluation and forecasting. With Stata, economists can estimate, simulate, and analyze DSGE models efficiently, using powerful built-in commands designed for both linear and nonlinear specifications
DSGE models are systems of equations derived from economic theory. They combine state variables, control variables, and shocks to represent how the economy evolves over time. A key feature is the role of expectations of future variables, which makes them essential for studying monetary policy, fiscal dynamics, and business cycle fluctuations.
Stata supports two main approaches:
dsge – estimation of linearized DSGE models.
dsgenl – estimation of nonlinear DSGE models (automatically linearized for solution).
Both commands allow researchers to write down theoretical models, solve them in state-space form, and estimate parameters using maximum likelihood or Bayesian methods.
Stata offers a comprehensive suite of tools for DSGE modeling:
Model specification – Define structural equations with dsge or dsgenl.
Solution methods – Convert nonlinear systems into solvable state-space forms.
Estimation – Obtain parameter estimates with maximum likelihood or Bayesian techniques.
Postestimation tools – Analyze policy matrices, stability conditions, impulse–response functions (IRFs). NOTE: Unlike Dynare, Stata offers no variance decomposition command for DSGE models.
Forecasting – Generate dynamic forecasts directly from fitted DSGE models.
Model diagnostics – Check identification, stability, and convergence.
In my tutorials and courses, I cover the most common benchmark DSGE models implemented in Stata:
The RBC framework studies fluctuations in output, consumption, and labor driven by technology shocks. In Stata, you can estimate the simple RBC model and extend it to include resource sectors such as oil production, capturing how commodity markets influence macroeconomic dynamics.
The New Keynesian framework introduces nominal rigidities and monetary policy rules. The core equations include:
IS curve (output dynamics).
New Keynesian Phillips Curve (inflation dynamics).
Monetary policy rule (typically a Taylor rule).
Stata makes it possible to estimate these models, compute impulse–response functions, and simulate the effects of monetary policy shocks.
Integrated environment: Unlike standalone macroeconomic solvers, Stata combines DSGE modeling with a full econometric suite.
Ease of syntax: The equation-based specification closely mirrors the theoretical setup.
Flexibility: Handle both linearized and nonlinear models.
Forecasting and IRFs: Built-in tools for policy analysis and forecasting under uncertainty.
Transparency: Parameters maintain clear structural interpretations grounded in theory.
At Forecasting Economics, I provide courses, tutorials, and video guides on how to implement DSGE models in Stata. You will learn step by step how to:
Specify and solve the simple RBC model.
Extend the RBC framework to include oil production shocks.
Build and estimate the New Keynesian three-equation DSGE model.
Use Stata’s postestimation tools to analyze stability, impulse responses, and policy effects.
My goal is to make DSGE modeling in Stata accessible, rigorous, and directly applicable to research and policy analysis.
DSGE models are essential tools in modern macroeconomics, and Stata provides a robust platform to estimate, simulate, and forecast them. From RBC models to New Keynesian DSGE frameworks, Stata equips researchers with the methods needed for serious policy and forecasting analysis.
If you are ready to deepen your understanding of DSGE models in Stata, explore my tutorials and training programs at Forecasting Economics.