
pmid: 23091467
pmc: PMC3470270
This article highlights some of the benefits of computational modeling for theorizing in cognition. We demonstrate how computational models have been used recently to argue that (1) forgetting in short-term memory is based on interference not decay, (2) forgetting in list-learning paradigms is more parsimoniously explained by a temporal distinctiveness account than by various forms of consolidation, and (3) intrusion asymmetries that appear when information is learned in different contexts can be explained by temporal context reinstatement rather than labilization and reconsolidation processes.
computational modeling, Temporal distinctiveness, name=Memory, 150, interference, Computational modeling, Decay, decay, BF1-990, temporal distinctiveness, Psychology, SIMPLE, SOB, Interference, consolidation, /dk/atira/pure/core/keywords/psyc_memory, Consolidation
computational modeling, Temporal distinctiveness, name=Memory, 150, interference, Computational modeling, Decay, decay, BF1-990, temporal distinctiveness, Psychology, SIMPLE, SOB, Interference, consolidation, /dk/atira/pure/core/keywords/psyc_memory, Consolidation
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