What should you expect if you decide to participate?
Your participation is completely voluntary; all of our researchers are extensively trained and have completed certified training for testing human subjects. What you can expect is contributing to cutting-edge and fun science: using state-of-the-art portable noninvasive neuroimaging (fNIRS) while playing a few brain games and a modified version of an exercise-based virtual reality video game (Beat Saber, Beat Games) in which you will be slicing blocks to the beat of songs using lightsabers immersed into a 3D world!
We invite students to participate in our research by visiting our lab on Stanford University's campus. Your visits will be no longer than 2.5 hours. You will receive a $30.00 Amazon Gift Card and custom neuroscience SWAG for participation! We are currently inviting 13- to 17-year-olds and 18- to 34-year-olds with and without attentional difficulties to participate in our research on campus.
How can you sign up for one of our studies?
If you are interested in participating in our study, please e-mail vrneurofit@stanford.edu, with the subject line: "VR Study"
Where is the Research Lab?
Our newly renovated lab location is on Stanford's campus at 1520 Page Mill Rd, Palo Alto, CA 94304. If you are arriving by car, we offer complimentary free parking surrounding the building. If you are biking or scootering, there are bike racks in front of the main entrance and in the parking garage. If you are walking, kudos for getting those steps in!
Thank you for your interest and participation!
See our t-shirt design below. Everyone who participates in our study will get a t-shirt!
Exergames are a generation of video games that stimulate cognitive and motor functions simultaneously. This study examines the separate and combined effects of exercise and cognitive stimulation on children’s executive function (EF) and associated neural substrates. Children participate in an Exergame (exercise + cognitive activity), Exercise (physical activity), Sedentary (cognitive activity), or Control (no-play) Condition. Resting-state prefrontal cortex connectivity utilizing fNIRS, behavioral assessments of EF, and teacher ratings of EF are assessed pre- and posttest. This study elucidates the neural mechanisms underlying changes in EF induced from exergame play.
This study is a longitudinal, microgenetic study that monitors changes in resting-state prefrontal cortex functional connectivity and executive function abilities of 4- to 5-year-old over multiple time points to investigate the development of executive function skills, resting-state prefrontal cortex functional connectivity, and the association between neural development and executive function development within the same group of children over time. A replication experiment with adults serves to validate the resting-state functional connectivity measure (Inscapes) utilizing a neuroimaging modality outside of fMRI.
This study examines the effects of immersive virtual experiences on cognition and neuroplasticity in low-income youth by experimentally modifying versions of a popular commercially-available virtual reality game: Beat Saber, with meticulous manipulations to the amount of physical activity and cognitive demands.
This study examines the impact of varying visual presentations in educational e-books on first and second graders’ developing reading skills and utilizing eye-tracking technology to extract eye gaze patterns and investigate the attention allocation of beginning readers. This study provides theoretical insights about design principles for reading materials that can be employed to optimize educational materials and promote literacy development in young children.
This study investigated how to instill the practices of high quality adult-child interactions in interactive digital technologies to improve learning outcomes.
Featured in Carnegie Mellon University's News Highlights and in The National Science Foundation (NSF) News