Associative retrieval processes in free recall

By Michael J. Kahana. 1996

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Citations in the corpus

Generalization Through the Recurrent Interaction of Episodic Memories (2012, background): “TCM was originally developed to account for essential properties of behavioral data on tasks involving free recall (Kahana, 1996; Polyn & Kahana, 2008; Polyn, Norman, & Kahana, 2009) but has more recently been proposed to account for inferential behavior in the transitive inference task (Howard et a”
When Does Semantic Similarity Help Episodic Retrieval (2002, methodology): “This effect shows a marked asymmetry: forward recalls are much more likely than backward recalls (Howard & Kahana, 1999; Kahana, 1996).”
Memory is More than just Remembering: Strategic Control of Encoding, Accessing Memory, and Making Decisions (2007, background): “…evidence that subjects use personal (Walker & Kintsch, 1985), semantic (Rundus, 1971), encoding‐matched (Tulving & Thomson, 1973), and list order (Kahana, 1996) cues in service of fostering retrieval, and briefly described one model that has a retrieval algorithm that updates its cue regularly.”
Associative Retrieval Processes in Episodic Memory (2008, background): “It is not surprising that chaining theory predicts a contiguity effect in both immediate and delayed free recall (Kahana, 1996).”
Temporal encoding of place sequences by hippocampal cell assemblies. (2006, background): “Finally, in learning, forward serial associations are stronger than backward associations (Tulving, 1969; Kahana, 1996; Fortin et al., 2004; Howard et al., 2005).”
Spacing and lag effects in free recall of pure lists (2005, background): “slowly over the course of item presentation (Balota, Duchek, & Paullin, 1989; Estes, 1955; Glenberg, 1979; Howard & Kahana, 2002a; Mensink & Raaijmakers, 1988) or by associations among neighboring list items (Johnson, 1972; Kahana, 1996 ) (See Figure 2). In either case, spacing the repeated items i”
Temporal associations and prior-list intrusions in free recall. (2006, methodology): “In comparing free-recall performance of young and older adults, Kahana et al. (2002) found that young adults exhibited a greater tendency to make transitions to nearby items, as shown by a more sharply peaked lag-CRP function.”
A distributed representation of temporal context (2002, methodology): “As output continues, the CRP becomes less pronounced, asymptoting at a level consistent with that seen in delayed recall (Howard & Kahana, 1999; Kahana, 1996).”
The Successor Representation and Temporal Context (2012, background): “In particular, Kahana (1996) measured recall contingencies: if the previously recalled item was studied at serial position j, what is the probability that the next-recalled item will be from serial position j+lag? This measure, known as the lag conditional response probability (CRP), revealed two pr”
Differential conditioning produces merged long-term memory in Drosophila (2021, background): “Seem to Be Derived from the Same mLTM The above results prompted us to investigate whether LTMCS+ and LTMCS– are based on two parallel LTMs of the same valence, or the same LTM that can be retrieved by either odor.”
The temporal context model in spatial navigation and relational learning: toward a common explanation of medial temporal lobe function across domains. (2005, methodology): “TCM describes asymmetric associations between stimuli in episodic recall (Howard & Kahana, 1999; Kahana, 1996; Kahana & Caplan, 2002) as a consequence of the combined effects of the two components of Eq.”
A temporal ratio model of memory. (2007, methodology): “Just this pattern is seen in the data: Not only do semantically related items tend to be recalled together, but items that were temporally close at presentation also tend to be recalled together (e.g., Howard & Kahana, 1999; Kahana, 1996).”
A context maintenance and retrieval model of organizational processes in free recall (2009, unknown): “Kahana (1996), in reanalyzing a number of classic free-recall studies, showed that temporal clustering seems to be a ubiquitous property of the recall sequences (see also Kahana, Howard, & Polyn, 2008).”
Associative asymmetry in probed recall of serial lists (2002, methodology): “This effect reinforces the view that asymmetry is a basic property of retrieval from multi-item lists (cf. Howard & Kahana, 1999;Kahana, 1996).”
The demise of short-term memory revisited: empirical and computational investigations of recency effects. (2005, background): “…position, and lag recency can be explained if one assumes a short-term buffer from which the initial few items in immediate free recall are retrieved in the order in which they entered the buffer (with the oldest item being retrieved first; Davelaar, 2003; Howard & Kahana, 1999; Kahana, 1996).”