Aguirregabiria and Mira (2010) Dynamic Discrete Choice Structural Models: A Survey

dynamic-discrete-choicedynamic-programmingstructural-estimationmaximum-likelihoodsimulationmarkov-perfect-equilibriumlabor-economicsindustrial-organizationliterature-survey

Summary

Comprehensive survey of estimation methods for dynamic discrete choice (DDC) structural models, updating earlier reviews by Eckstein-Wolpin (1989) and Rust (1994a). The paper organizes estimators around whether they require solving the full dynamic programming (DP) problem at each trial parameter vector, contrasting Rust's (1987) nested fixed-point (NFXP) algorithm with conditional-choice-probability (CCP)-based two-step methods (Hotz-Miller 1993) and the nested pseudo-likelihood (NPL) recursive algorithm (Aguirregabiria-Mira 2002). Coverage spans single-agent models, competitive equilibrium models, and dynamic games under Markov perfect equilibrium (MPE).

Key Claims

Concepts Introduced or Extended

Entities Mentioned

Quotes

"The Hotz and Miller (1993) inversion theorem is a key result that enables the construction of estimators that avoid the repeated solution of the dynamic programming problem."

"The NPL algorithm provides estimators with better finite-sample properties than the two-step CCP estimator while maintaining the computational advantages of not requiring a full DP solution at each iteration."

My Take

The survey's central contribution is clarifying the computational–statistical trade-off landscape: NFXP is asymptotically gold-standard but expensive; CCP two-step is fast but loses finite-sample precision; NPL bridges the gap iteratively. The treatment of dynamic games is valuable but acknowledges that MPE multiplicity and identification are genuinely hard open problems. The paper predates Markov chain Monte Carlo (MCMC) approaches to DDC estimation (Imai-Jain-Ching 2009; Norets 2009), which would become a productive strand, and barely treats Bayesian methods. Applications are heavily weighted toward labor and industrial organization (IO); the methods have since spread to health, education, and marketing.