Spatial navigation and decision-making are involved processes, modulated by motivational drive, reward expectation, and working memory. Due to this complexity, many questions remain as to the cellular and circuit-level mechanisms that contribute to spatial processing. Technological advances (such as in electrophysiology, imaging techniques, and genetic manipulations) have greatly increased the complexity of questions related to spatial navigation that can be asked and answered. These advances also require careful, simultaneous consideration of appropriate behavioral tasks and environmental perturbations. The aim of this collection is to gather a diverse collection of methods, spanning from molecular to behavioral, that can be used to inspire lines of inquiry into the brain mechanism involved in spatial navigation. Ideally, this collection will lead to increases in our knowledge of how spatial information is processed in the brain.
0 Views
•
Cited by 2
•
2023
•
0 Views
•
Cited by 5
•
2024
•
Alana J. Smith1, Noor Tasnim2, Zach Psaras3, Daphne Gyamfi4, Krishna Makani4, Wendy A. Suzuki3, Julia C. Basso1,4,5
1School of Neuroscience, Virginia Tech, 2Graduate Program in Translational Biology, Medicine, and Health, Virginia Tech, 3Center for Neural Science, New York University, 4Department of Human Nutrition, Foods, and Exercise, Virginia Tech, 5Center for Health Behaviors Research, Fralin Biomedical Research Institute at VTC
Novel methods to assess spatial navigation in humans and rodents and using exercise as a mode to enhance this behavior
Julia Basso*1,
Noor Tasnim1,
Zach Psaras2,
Alana Smith1,
Wendy Suzuki2,
Daphne Gyamfi1,
Chelsea Buhler1,
Daniel English*1
1Virginia Tech,
2New York University