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Starns, Jeffrey J.; Ratcliff, Roger; McKoon, Gail – Cognitive Psychology, 2012
We tested two explanations for why the slope of the z-transformed receiver operating characteristic (zROC) is less than 1 in recognition memory: the unequal-variance account (target evidence is more variable than lure evidence) and the dual-process account (responding reflects both a continuous familiarity process and a threshold recollection…
Descriptors: Reaction Time, Models, Prediction, Communication (Thought Transfer)
Rottman, Benjamin M.; Keil, Frank C. – Cognitive Psychology, 2012
Seven studies examined how people learn causal relationships in scenarios when the variables are temporally dependent--the states of variables are stable over time. When people intervene on X, and Y subsequently changes state compared to before the intervention, people infer that X influences Y. This strategy allows people to learn causal…
Descriptors: Reaction Time, Causal Models, Prediction, Observation
Schneider, Darryl W.; Anderson, John R. – Cognitive Psychology, 2011
We propose and evaluate a memory-based model of Hick's law, the approximately linear increase in choice reaction time with the logarithm of set size (the number of stimulus-response alternatives). According to the model, Hick's law reflects a combination of associative interference during retrieval from declarative memory and occasional savings…
Descriptors: Reaction Time, Memory, Evaluation, Models
Goschke, Thomas; Bolte, Annette – Cognitive Psychology, 2012
Learning sequential structures is of fundamental importance for a wide variety of human skills. While it has long been debated whether implicit sequence learning is perceptual or response-based, here we propose an alternative framework that cuts across this dichotomy and assumes that sequence learning rests on associative changes that can occur…
Descriptors: Reading Difficulties, Reaction Time, Tests, Models
Foley, Nicholas C.; Grossberg, Stephen; Mingolla, Ennio – Cognitive Psychology, 2012
How are spatial and object attention coordinated to achieve rapid object learning and recognition during eye movement search? How do prefrontal priming and parietal spatial mechanisms interact to determine the reaction time costs of intra-object attention shifts, inter-object attention shifts, and shifts between visible objects and covertly cued…
Descriptors: Priming, Cues, Reaction Time, Eye Movements
Greene, Michelle R.; Oliva, Aude – Cognitive Psychology, 2009
Human observers are able to rapidly and accurately categorize natural scenes, but the representation mediating this feat is still unknown. Here we propose a framework of rapid scene categorization that does not segment a scene into objects and instead uses a vocabulary of global, ecological properties that describe spatial and functional aspects…
Descriptors: Models, Classification, Observation, Experiments
Ludwig, Casimir J. H.; Farrell, Simon; Ellis, Lucy A.; Gilchrist, Iain D. – Cognitive Psychology, 2009
Human observers take longer to re-direct gaze to a previously fixated location. Although there has been some exploration of the characteristics of inhibition of saccadic return (ISR), the exact mechanisms by which ISR operates are currently unknown. In the framework of accumulation models of response times, in which evidence is integrated over…
Descriptors: Inhibition, Eye Movements, Models, Reaction Time
Huang, Yi Ting; Snedeker, Jesse – Cognitive Psychology, 2009
Scalar implicature has served as a test case for exploring the relations between semantic and pragmatic processes during language comprehension. Most studies have used reaction time methods and the results have been variable. In these studies, we use the visual-world paradigm to investigate implicature. We recorded participants' eye movements…
Descriptors: Comprehension, Reaction Time, Semantics, Eye Movements
Ulrich, Rolf; Miller, Jeff – Cognitive Psychology, 2008
Response grouping is a ubiquitous phenomenon in psychological refractory period (PRP) tasks, yet it hampers the analysis of dual-task performance. To account for response grouping, we developed several extended versions of the standard bottleneck model, each of which incorporates a possible grouping mechanism into this model. Computer simulations…
Descriptors: Reaction Time, Psychology, Computer Simulation, Prediction
Los, Sander A.; Schut, Marcus L. J. – Cognitive Psychology, 2008
In reaction time (RT) research on nonspecific preparation, the preparation period is often identified with the foreperiod (FP), the interval between the offset of a neutral warning stimulus (S1) and the onset of the reaction stimulus (S2). However, the "effective preparation period" may be longer than FP: nonspecific preparation may start prior to…
Descriptors: Reaction Time, Intervals, Stimuli, Experiments
Brown, Scott D.; Heathcote, Andrew – Cognitive Psychology, 2008
We propose a linear ballistic accumulator (LBA) model of decision making and reaction time. The LBA is simpler than other models of choice response time, with independent accumulators that race towards a common response threshold. Activity in the accumulators increases in a linear and deterministic manner. The simplicity of the model allows…
Descriptors: Reaction Time, Models, Decision Making, Experiments
Mayr, Ulrich – Cognitive Psychology, 2009
Recent evidence suggests substantial response-time costs associated with lag-2 repetitions of tasks within explicitly controlled task sequences [Koch, I., Philipp, A. M., Gade, M. (2006). Chunking in task sequences modulates task inhibition. "Psychological Science," 17, 346-350; Schneider, D. W. (2007). Task-set inhibition in chunked task…
Descriptors: Inhibition, Short Term Memory, Long Term Memory, Reaction Time
Fazl, Arash; Grossberg, Stephen; Mingolla, Ennio – Cognitive Psychology, 2009
How does the brain learn to recognize an object from multiple viewpoints while scanning a scene with eye movements? How does the brain avoid the problem of erroneously classifying parts of different objects together? How are attention and eye movements intelligently coordinated to facilitate object learning? A neural model provides a unified…
Descriptors: Reaction Time, Eye Movements, Earth Science, Associative Learning
Miller, Jeff; Ulrich, Rolf – Cognitive Psychology, 2003
A race-like model is developed to account for various phenomena arising in simple reaction time (RT) tasks. Within the model, each stimulus is represented by a number of grains of information or activation processed in parallel. The stimulus is detected when a criterion number of activated grains reaches a decision center. Using the concept of…
Descriptors: Reaction Time, Models, Stimuli
Gilbert, Sam J.; Shallice, Tim – Cognitive Psychology, 2002
When subjects switch between a pair of stimulus-response tasks, reaction time is slower on trial N if a different task was performed on trial N--1. We present a parallel distributed processing (PDP) model that simulates this effect when subjects switch between word reading and color naming in response to Stroop stimuli. Reaction time on "switch…
Descriptors: Stimuli, Reaction Time, Associative Learning, Models