TY - JOUR
T1 - An Expert Guide to Planning Experimental Tasks For Evidence-Accumulation Modeling
AU - Boag, Russell J.
AU - Innes, Reilly J.
AU - Stevenson, Niek
AU - Bahg, Giwon
AU - Busemeyer, Jerome R.
AU - Cox, Gregory E.
AU - Donkin, Chris
AU - Frank, Michael J.
AU - Hawkins, Guy E.
AU - Heathcote, Andrew
AU - Hedge, Craig
AU - Lerche, Veronika
AU - Lilburn, Simon D.
AU - Logan, Gordon D.
AU - Matzke, Dora
AU - Miletić, Steven
AU - Osth, Adam F.
AU - Palmeri, Thomas J.
AU - Sederberg, Per B.
AU - Singmann, Henrik
AU - Smith, Philip L.
AU - Stafford, Tom
AU - Steyvers, Mark
AU - Strickland, Luke
AU - Trueblood, Jennifer S.
AU - Tsetsos, Konstantinos
AU - Turner, Brandon M.
AU - Usher, Marius
AU - van Maanen, Leendert
AU - van Ravenzwaaij, Don
AU - Vandekerckhove, Joachim
AU - Voss, Andreas
AU - Weichart, Emily R.
AU - Weindel, Gabriel
AU - White, Corey N.
AU - Evans, Nathan J.
AU - Brown, Scott D.
AU - Forstmann, Birte U.
N1 - Publisher Copyright: © The Author(s) 2025.
PY - 2025/4/1
Y1 - 2025/4/1
N2 - Evidence-accumulation models (EAMs) are powerful tools for making sense of human and animal decision-making behavior. EAMs have generated significant theoretical advances in psychology, behavioral economics, and cognitive neuroscience and are increasingly used as a measurement tool in clinical research and other applied settings. Obtaining valid and reliable inferences from EAMs depends on knowing how to establish a close match between model assumptions and features of the task/data to which the model is applied. However, this knowledge is rarely articulated in the EAM literature, leaving beginners to rely on the private advice of mentors and colleagues and inefficient trial-and-error learning. In this article, we provide practical guidance for designing tasks appropriate for EAMs, relating experimental manipulations to EAM parameters, planning appropriate sample sizes, and preparing data and conducting an EAM analysis. Our advice is based on prior methodological studies and the our substantial collective experience with EAMs. By encouraging good task-design practices and warning of potential pitfalls, we hope to improve the quality and trustworthiness of future EAM research and applications.
AB - Evidence-accumulation models (EAMs) are powerful tools for making sense of human and animal decision-making behavior. EAMs have generated significant theoretical advances in psychology, behavioral economics, and cognitive neuroscience and are increasingly used as a measurement tool in clinical research and other applied settings. Obtaining valid and reliable inferences from EAMs depends on knowing how to establish a close match between model assumptions and features of the task/data to which the model is applied. However, this knowledge is rarely articulated in the EAM literature, leaving beginners to rely on the private advice of mentors and colleagues and inefficient trial-and-error learning. In this article, we provide practical guidance for designing tasks appropriate for EAMs, relating experimental manipulations to EAM parameters, planning appropriate sample sizes, and preparing data and conducting an EAM analysis. Our advice is based on prior methodological studies and the our substantial collective experience with EAMs. By encouraging good task-design practices and warning of potential pitfalls, we hope to improve the quality and trustworthiness of future EAM research and applications.
KW - decision-making
KW - evidence-accumulation models
KW - experimental design
KW - model-based cognitive neuroscience
KW - response time
UR - https://www.scopus.com/pages/publications/105007133795
U2 - 10.1177/25152459251336127
DO - 10.1177/25152459251336127
M3 - Article
SN - 2515-2459
VL - 8
JO - Advances in Methods and Practices in Psychological Science
JF - Advances in Methods and Practices in Psychological Science
IS - 2
M1 - 25152459251336127
ER -