COGS, NeuroFraming and the OSCLR Effect
COGS® Neuroframing uses non-threatening motion in the peripheral vision. This particular type of motion has a calming effect allowing the wearer to focus more intently and remain alert longer. This type of visual display has been named OSCLR.
The OSCLR Effect was first discovered in 2015 by Dr. Andy Bevilacqua during his doctoral research. OSCLR stands for Optically Stimulated Cognitive Load Regulation and has been demonstrated to help improve learning, increase retention and promote concentration by blocking distractions and clear brain fog.
The Optically Stimulated Cognitive Load Regulation of COGS® is a chemical-free alternative that stimulates a natural process in the brain enabling the wearer to learn more faster and stay alert longer. In addition to our glasses we have developed a software application that delivers the OSCLR Effect on your tablet or computer display called NeuroFraming™.
Our NeuroFraming™ products and configurations achieve cognitive load regulation through optical stimulation in the peripheral vision. We designed our various software NeuroFraming™ products to activate this OSCLR Effect so that our customers and community can achieve advancements in concentration, throughput, and productivity while actively engaged in their primary tasks.
A discussion of semantics may be useful here, as the concept of Neuroplasticity has been getting some attention. Neuroplasticity and Neuroframing™ are both physiological processes. Neuroplasticity involves functional adaptation to stimulus by a reorganization of, for example, brain structure, functions, or connections. Meanwhile, our NeuroFraming™ products do not involve reorganization of brain structure. Thus, these two expressions look similar, but differ in many important ways. Other forms of cognitive regulation are administered at separate times and/or require extensive training/meditation sessions. The OSCLR Effect requires no down-time, is immediately effective, and can be administered while the user is engaged in their work.
If your are interested in being an early adopter for NeuroFraming™ (web-based frame) please contact us.
Practical NLP Podcast. Andy Smith. (2018). How To Use Peripheral Vision In Therapy.
Anne-Laure Le Cunff. How stress and anxiety impact your ability to focus.
Bevilacqua, A., Paas, F., & Krigbaum, G. (2016). Effects of motion in the far peripheral visual field on cognitive test performance and cognitive load. Perceptual & Motor Skills, 122(2), 453-469.
Bevilacqua, A., Paas, F., & Krigbaum, G. (2016). Effects of motion in the far peripheral visual field on cognitive test performance and cognitive load. 9th Annual Cognitive Load Theory Conference, Bochum, Germany, June 23-25, 2016.
Bevilacqua, A. T. (2017). Gender effects of cognitive load induced by non-biological motion in physical learning environments (Doctoral dissertation, Grand Canyon University)
Castro-Alonso, J. C., Wong, M., Adesope, O. O., Ayres, P., & Paas, F. (2019b). Gender imbalance in instructional dynamic versus static visualizations: A meta-analysis. Educational Psychology Review, 31(2), 361–387
Bevilacqua, A. (2016). Commentary: Should Gender Differences be Included in the Evolutionary Upgrade to Cognitive Load Theory? Educational Psychology Review. Published Online 8 March 2016.
Krigbaum, G. & Bevilacqua, A. (September 2021 – abstract). The effects of dynamic lighting in the peripheral visual field on performance and subjective experience, in school related activities: A case study. 13th International Cognitive Load Theory Conference.
Jim Kelly – Full Review