In this study, using a joint modelling method with the Diffusion Decision Model, we offer a mechanistic reinterpretation of the Late Positive event-related potential Component (LPC) as a neural signature of mnemonic strength during evidence accumulation in recognition memory.
theconversation.com/our-brains-e...
doi.org/10.1016/j.ap...
theconversation.com/our-brains-e...
doi.org/10.1016/j.ap...
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It was what Dr Raina Zhang from the Complex Human Data Hub calls a “mind-blowing” theory that set her on the path to study the mechanisms behind memory.
Learn more: go.unimelb.edu.au/ut7p
It was what Dr Raina Zhang from the Complex Human Data Hub calls a “mind-blowing” theory that set her on the path to study the mechanisms behind memory.
Learn more: go.unimelb.edu.au/ut7p
In this study, using a joint modelling method with the Diffusion Decision Model, we offer a mechanistic reinterpretation of the Late Positive event-related potential Component (LPC) as a neural signature of mnemonic strength during evidence accumulation in recognition memory.
In this study, using a joint modelling method with the Diffusion Decision Model, we offer a mechanistic reinterpretation of the Late Positive event-related potential Component (LPC) as a neural signature of mnemonic strength during evidence accumulation in recognition memory.
osf.io/preprints/ps...
osf.io/preprints/ps...
What causes the drift rate to vary across trials? How much does the drift rate variability estimate in the Diffusion Decision Model reflect the true variability? Here, we critically examined this by including trial-level regressors of drift rate.
osf.io/preprints/ps...
What causes the drift rate to vary across trials? How much does the drift rate variability estimate in the Diffusion Decision Model reflect the true variability? Here, we critically examined this by including trial-level regressors of drift rate.
osf.io/preprints/ps...