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Alexis Topete; Chuanxiuyue He; Mary Hegarty – Cognitive Research: Principles and Implications, 2025
People navigate in various types of spaces, including indoor and outdoor environments. These differ in availability of navigational cues, such as distal landmarks, clear boundaries, and regular grid structures. Does learning the layout of different types of environments rely on the same or diverse cognitive abilities? Do separate measures of…
Descriptors: Navigation, Cognitive Ability, Adjustment (to Environment), Adults
Muffato, Veronica; Miola, Laura; Pellegrini, Marilina; Pazzaglia, Francesca; Meneghetti, Chiara – Cognitive Research: Principles and Implications, 2023
When learning an environment from virtual navigation people gain knowledge about landmarks, their locations, and the paths that connect them. The present study newly aimed to investigate all these domains of knowledge and how cognitive factors such as visuospatial abilities and wayfinding inclinations might support virtual passive navigation. A…
Descriptors: Navigation, Computer Simulation, Environment, Spatial Ability
Antony, James W.; Stiver, Caroline A.; Graves, Kathryn N.; Osborne, Jarryd; Turk-Browne, Nicholas B.; Bennion, Kelly A. – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2022
Theories of memory consolidation suggest that initially rich, vivid memories become more gist-like over time. However, it is unclear whether gist-like representations reflect a loss of detail through degradation or the blending of experiences into statistical averages, and whether the strength of these representations increases, decreases, or…
Descriptors: Memory, Behavioral Science Research, Undergraduate Students, Computer Simulation
Weisberg, Steven M.; Schinazi, Victor R.; Ferrario, Andrea; Newcombe, Nora S. – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2023
Relying on shared tasks and stimuli to conduct research can enhance the replicability of findings and allow a community of researchers to collect large data sets across multiple experiments. This approach is particularly relevant for experiments in spatial navigation, which often require the development of unfamiliar large-scale virtual…
Descriptors: Programming, Error Patterns, Computer Simulation, Spatial Ability
Jia Liu; Avinash Kumar Singh; Anna Wunderlich; Klaus Gramann; Chin-Teng Lin – npj Science of Learning, 2022
Although beacon- and map-based spatial strategies are the default strategies for navigation activities, today's navigational aids mostly follow a beacon-based design where one is provided with turn-by-turn instructions. Recent research, however, shows that our reliance on these navigational aids is causing a decline in our spatial skills. We are…
Descriptors: Navigation, Physical Environment, Simulated Environment, Computer Simulation
Negen, James; Sandri, Angela; Lee, Sang Ah; Nardini, Marko – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2020
Large walls and other typical boundaries strongly influence neural activity related to navigation and the representations of spatial layouts. They are also major aids to reliable navigation behavior in young children and nonhuman animals. Is this because they are physical boundaries (barriers to movement), or because they present certain visual…
Descriptors: Spatial Ability, Memory, Navigation, Computer Simulation
Nguyen, Kim V.; Tansan, Merve; Newcombe, Nora S. – Journal of Cognition and Development, 2023
Research on spatial navigation is essential to understanding how mobile species adapt to their environments. Such research increasingly uses virtual environments (VEs) because, although VE has drawbacks, it allows for standardization of procedures, precision in measuring behaviors, ease in introducing variation, and cross-investigator…
Descriptors: Computer Simulation, Spatial Ability, Navigation, Research Methodology
Margherita Malanchini; Kaili Rimfeld; Nicholas G. Shakeshaft; Andrew McMillan; Kerry L. Schofield; Maja Rodic; Valerio Rossi; Yulia Kovas; Philip S. Dale; Elliot M. Tucker-Drob; Robert Plomin – npj Science of Learning, 2020
Performance in everyday spatial orientation tasks (e.g., map reading and navigation) has been considered functionally separate from performance on more abstract object-based spatial abilities (e.g., mental rotation and visualization). However, few studies have examined the link between spatial orientation and object-based spatial skills, and even…
Descriptors: Intelligence, Spatial Ability, Twins, Task Analysis
Lei, Xuehui; Mou, Weimin; Zhang, Lei – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2020
This study investigated the extent to which people can develop a global representation of local environments through across-boundary navigation. Participants learned objects' locations in two misaligned rectangular rooms in an immersive virtual environment. After learning, they adopted a local view in one room and judged directions of objects…
Descriptors: Spatial Ability, Computer Simulation, Navigation, Learning Processes
Brunec, Iva K.; Ozubko, Jason D.; Barense, Morgan D.; Moscovitch, Morris – Learning & Memory, 2017
Time and space represent two key aspects of episodic memories, forming the spatiotemporal context of events in a sequence. Little is known, however, about how temporal information, such as the duration and the order of particular events, are encoded into memory, and if it matters whether the memory representation is based on recollection or…
Descriptors: Recall (Psychology), Memory, Time, Spatial Ability
Forloines, Martha R.; Reid, Meredith A.; Thompkins, Andie M.; Robinson, Jennifer L.; Katz, Jeffrey S. – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2019
There are mixed results regarding the differentiation of neurofunctional correlates of spatial abilities. Previous studies employed complex environments or alternate memory tasks which could potentially add to inconsistencies across studies of navigation. To help elucidate the existing mixed findings, we conducted a study in a simplistic…
Descriptors: Computer Simulation, Brain Hemisphere Functions, Task Analysis, Cues
Starrett, Michael J.; Stokes, Jared D.; Huffman, Derek J.; Ferrer, Emilio; Ekstrom, Arne D. – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2019
An important question regards how we use environmental boundaries to anchor spatial representations during navigation. Behavioral and neurophysiological models appear to provide conflicting predictions, and this question has been difficult to answer because of technical challenges with testing navigation in novel, large-scale, realistic spatial…
Descriptors: Spatial Ability, Computer Simulation, Prediction, Structural Equation Models
He, Qiliang; McNamara, Timothy P.; Bodenheimer, Bobby; Klippel, Alexander – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2019
In the current study, we investigated the ways in which the acquisition and transfer of spatial knowledge were affected by (a) the type of spatial relations predominately experienced during learning (routes determined by walkways vs. straight-line paths between locations); (b) environmental complexity; and (c) the availability of rotational…
Descriptors: Transfer of Training, Spatial Ability, Computer Simulation, Retailing
Roca-González, Cristina; Martin-Gutierrez, Jorge; García-Dominguez, Melchor; Carrodeguas, Mª del Carmen Mato – EURASIA Journal of Mathematics, Science & Technology Education, 2017
The present study assessed a short training experiment to improve spatial abilities using two tools based on virtual technologies: one focused on manipulation of specific geometric virtual pieces, and the other consisting of virtual orienteering game. The two tools can help improve spatial abilities required for many engineering problem-solving…
Descriptors: Engineering Education, Spatial Ability, Computer Uses in Education, Computer Simulation
Youngstrom, Isaac A.; Strowbridge, Ben W. – Learning & Memory, 2012
Because many different sensory modalities contribute to spatial learning in rodents, it has been difficult to determine whether spatial navigation can be guided solely by visual cues. Rodents moving within physical environments with visual cues engage a variety of nonvisual sensory systems that cannot be easily inhibited without lesioning brain…
Descriptors: Animals, Navigation, Spatial Ability, Computer Simulation
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