Publications
Reprint Requests
Initial training with difficult items facilitates information integration, but not rule-based category learning.
Psychological Science. 19(11), 1169-1177.
(2008). Integrating information from separable psychological dimensions.
Journal of Experimental Psychology: Human Perception and Performance. 16, 598.
(1990). An introduction to fMRI.
In B. U. Forstmann & E.-J. Wagenmakers (Eds.), An introduction to model-based cognitive neuroscience. 91–112.
(2015). Just Do It: A Neuropsychological Theory of Agency, Cognition, Mood, and Dopamine.
Journal of Experimental Psychology: General. 153(6), 1582–1604.
(2024). Learning and transfer of category knowledge in an indirect categorization task.
Psychological Research. 76(3), 292-303.
(2012). Learning robust cortico-cortical associations with the basal ganglia: an integrative review.
Cortex. 64, 123-35.
(2015). Length of the state trace: A method for partitioning model complexity.
Journal of Mathematical Psychology. 113, 102755.
(2023). Linear separability, irrelevant variability, and categorization difficulty.
Journal of Experimental Psychology: Learning, Memory, & Cognition. 48, 159-172.
(2022). Linking signal detection theory and encoding models to reveal independent neural representations from neuroimaging data.
PLOS Computational Biology. 14(10), e1006470.
(2018). Mathematical models of human learning.
In F. G. Ashby, H. Colonius, & E. Dzhafarov (Eds.), The new handbook of mathematical psychology, Volume 3 (pp. 163-217). Cambridge University Press.
(2023). Measurement scales and statistics: The misconception misconceived..
Psychological Bulletin. 96, 394 401.
(1984). Methods of modeling capacity in simple processing systems.
Cognitive theory. 3, 200–239.
(1978). A model of dopamine modulated cortical activation.
Neural Networks. 16(7), 973-984.
(2003). Modulation of dopamine for adaptive learning: A neurocomputational model.
Computational Brain & Behavior. 1–19.
(2020). Multidimensional models of categorization.
In F. G. Ashby (Ed.), Multidimensional models of perception and cognition. 449-483.
(1992). Multidimensional signal detection theory.
In: J. R. Busemeyer, Z. Wang, J. T. Townsend, & A. Eidels (Eds.), Oxford handbook of computational and mathematical psychology. 13–34.
(2015). Multiple attention systems in perceptual categorization.
Memory & Cognition. 30, 325–339.
(2002). Multiple stages of learning in perceptual categorization: evidence and neurocomputational theory.
Psychonomic Bulletin & Review. 22(6), 1598-1613.
(2015). Multiple systems of perceptual category learning: Theory and cognitive tests.
Handbook of categorization in cognitive science. 547–572.
(2005). Multiple systems of perceptual category learning: Theory and cognitive tests.
In H. Cohen and C. Lefebvre (Eds.), Handbook of Categorization in Cognitive Science (Second Edition). 157–188.
(2017). Multivariate probability distributions.
In F. G. Ashby (Ed.), Multidimensional models of perception and cognition. 1-34.
(1992). On the nature of implicit categorization.
Psychonomic Bulletin & Review. 6, 363–378.
(1999). The neural basis of general recognition theory.
In J. W. Houpt & L. M. Blaha (Eds.), Mathematical models of perception and cognition: A Festschrift for James T. Townsend (pp. 1 - 31). New York: Psychology Press. 1-31.
(2016). A neural interpretation of exemplar theory.
Psychological Review. 124(4), 472-482.
(2017). Neural networks underlying the metacognitive uncertainty response.
Cortex. 71, 306-22.
(2015).