Deeply rooted within the history of experimental psychology is the search for general laws of learning that hold across tasks and species. Central to this enterprise has been the notion of equipotentiality, that any 2 events have the same likelihood of being associated with one another as any other pair of events. Much work, generally summarized as biological constraints on learning, has challenged this view and demonstrates pre-existing relations between cues and outcomes, based on genes and prior experience, that influence potential associability. Learning theorists and comparative psychologists have thus recognized the need to consider how the evolutionary history as well as prior experience of the organism being studied influences its ability to learn about and navigate its environment. We suggest that current models of human memory, and human memory research in general, lack sufficient consideration of how human evolution has shaped human memory systems. We review several findings that suggest the human memory system preferentially processes information relevant to biological fitness. We suggest a simple computational amendment to existing models of learning and memory that would expand their explanatory power and discuss potential theoretical and applied benefits (and costs) afforded by adopting this functionalist perspective.
CITATION STYLE
Seitz, B. M., Blaisdell, A. P., Polack, C. W., & Miller, R. R. (2019). The Role of Biological Significance in Human Learning and Memory. International Journal of Comparative Psychology, 32, 1–21. https://doi.org/10.46867/ijcp.2019.32.03.02
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